mhurhangee/patent-ind-claim-en huggingface dataset:
Vehicle comprising a vehicle seat , a seat drawer , a seat frame and a movement unit , wherein - the seat frame is arranged beneath the vehicle seat and comprises a base unit and is designed to receive the seat drawer ; and - the movement unit is located between a lower side of the seat drawer and an upper side of the base unit , wherein the movement unit is designed to enable a movement of the seat drawer along a predefined primary direction between a closed position (P0) and a primary open position (P1), characterized in that the movement unit is designed to enable a movement of the seat drawer along a predefined secondary direction between the closed position (P0) and a secondary open position (P2), wherein the predefined secondary direction is orthogonal to the predefined primary direction . - the seat frame is arranged beneath the vehicle seat and comprises a base unit and is designed to receive the seat drawer ; and - the movement unit is located between a lower side of the seat drawer and an upper side of the base unit , wherein the movement unit is designed to enable a movement of the seat drawer along a predefined primary direction between a closed position (P0) and a primary open position (P1),
An angle adjustment device for an electric seat, comprising an inner toothed plate and an outer toothed plate engaging with each other, an eccentric cavity being formed between the inner toothed plate and the outer toothed plate , an eccentric ring filling a forward eccentric zone of the eccentric cavity being arranged in the eccentric cavity, the eccentric ring being provided with a first accommodating zone and a second accommodating zone in a circumferential direction, and the angle adjustment device for an electric seat further comprising a driving member for driving the eccentric ring to rotate; a damping member being arranged in the first accommodating zone and/or the second accommodating zone , and the damping member being in a compressed state during working of the driving member; a wedge-shaped block being arranged in the first accommodating zone , and the driving member being configured to drive the wedge-shaped block or the eccentric ring to drive the eccentric ring to rotate; and the angle adjustment device further comprising an elastic member for compressing the eccentric ring and the wedge-shaped block , the angle adjustment device for an electric seat being characterized in that , the driving member comprises a first driving block extending into the first accommodating zone and a second driving block extending into the second accommodating zone , and each of the first driving block and the second driving block has a driving working surface and a non-driving working surface ; and the damping member comprises a first damping element arranged in the first accommodating zone and a second damping element arranged in the second accommodating zone , one end of each of the first damping element and the second damping abuts against the non-driving working surface of a relative driving block, and another end of each of the first damping element and the second damping element abuts against a side wall of a relative accommodating zone. a wedge-shaped block being arranged in the first accommodating zone , and the driving member being configured to drive the wedge-shaped block or the eccentric ring to drive the eccentric ring to rotate; and the angle adjustment device further comprising an elastic member for compressing the eccentric ring and the wedge-shaped block , the angle adjustment device for an electric seat being characterized in that , the driving member comprises a first driving block extending into the first accommodating zone and a second driving block extending into the second accommodating zone , and each of the first driving block and the second driving block has a driving working surface and a non-driving working surface ; and the damping member comprises a first damping element arranged in the first accommodating zone and a second damping element arranged in the second accommodating zone , one end of each of the first damping element and the second damping abuts against the non-driving working surface of a relative driving block, and another end of each of the first damping element and the second damping element abuts against a side wall of a relative accommodating zone.
A process chamber for carrying out thermal processes in the manufacture of an electronic assembly comprising: at least one opening for introducing and/or removing the electronic assembly ; means for supplying a protective gas; controllable protection means arranged at the opening to reduce escape of protective gas from the process chamber; and characterized by a measuring means which detects the topography of the electronic assembly control means that controls based on the measurement data of the measuring means the protection means such that, when the electronic assembly passes the opening , an opening cross section of the opening is provided, which corresponds with the height of the component of the electronic assembly currently situated at the location of the protection means. at least one opening for introducing and/or removing the electronic assembly ; means for supplying a protective gas; controllable protection means arranged at the opening to reduce escape of protective gas from the process chamber; and characterized by a measuring means which detects the topography of the electronic assembly control means that controls based on the measurement data of the measuring means the protection means such that, when the electronic assembly passes the opening , an opening cross section of the opening is provided, which corresponds with the height of the component of the electronic assembly currently situated at the location of the protection means.
A polymer comprising a (per)fluoropolyether chain (R f ) having two ends, wherein one or both ends comprise(s) at least one zwitterionic group (Z w ), wherein said (per)fluoropolyether chain (R f ) is selected from chains of formula: (R f -IIA) -(CF 2 CF 2 O) a1 (CF 2 O) a2 - wherein: - a1 and a2 are independently integers ≥ 0 such that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; with the ratio a1/a2 being preferably comprised between 0.1 and 10; (R f -IIB) -(CF 2 CF 2 O) b1 (CF 2 O) b2 (CF(CF 3 )O) b3 (CF 2 CF(CF 3 )O) b4 - wherein: b1, b2, b3, b4, are independently integers ≥ 0 such that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; preferably b1 is 0, b2, b3, b4 are > 0, with the ratio b4/(b2+b3) being ≥1; (R f -IIC) -(CF 2 CF 2 O) c1 (CF 2 O) c2 (CF 2 (CF 2 ) cw CF 2 O) c3 - wherein: cw = 1 or 2; c1, c2, and c3 are independently integers ≥ 0 chosen so that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; preferably c1, c2 and c3 are all > 0, with the ratio c3/(c1+c2) being generally lower than 0.2; (R f -IID) -(CF 2 CF(CF 3 )O) d - wherein: d is an integer >0 such that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; (R f -IIE) -(CF 2 CF 2 C(Hal*) 2 O) e1 -(CF 2 CF 2 CH 2 O) e2 -(CF 2 CF 2 CH(Hal*)O) e3 - wherein: - Hal*, equal or different at each occurrence, is a halogen selected from fluorine and chlorine atoms, preferably a fluorine atom; - e1, e2, and e3, equal to or different from each other, are independently integers ≥ 0 such that the (e1+e2+e3) sum is comprised between 2 and 300; and wherein said at least one zwitterionic group (Z w ) is selected from formulae (Z w -1), (Z w -2a) and (Z w -2b) here below: (Z w -1) -Cat 1 + -S 1zw -An - wherein: - Cat 1 + represents NR'R", wherein R' and R" are both methyl; - S 1zw is a straight alkylene chain comprising 1 to 10 carbon atoms; - An - represents a carboxylate anion; cw = 1 or 2; c1, c2, and c3 are independently integers ≥ 0 chosen so that the number average molecular weight is between 400 and 10,000, preferably between 400 and 5,000; preferably c1, c2 and c3 are all > 0, with the ratio c3/(c1+c2) being generally lower than 0.2; - Hal*, equal or different at each occurrence, is a halogen selected from fluorine and chlorine atoms, preferably a fluorine atom; - e1, e2, and e3, equal to or different from each other, are independently integers ≥ 0 such that the (e1+e2+e3) sum is comprised between 2 and 300; - Cat 1 + represents NR'R", wherein R' and R" are both methyl; - S 1zw is a straight alkylene chain comprising 1 to 10 carbon atoms; - An - represents a carboxylate anion;
Method for a master device to access a value taken by a characteristic managed by a peripheral device in a local area network, said master and peripheral devices being able to communicate by means of a radio connection of BLE, Bluetooth Low Energy, type, said method comprising the following steps implemented by a first relay device belonging to the local area network and being located in an area of radio coverage of BLE type of the master device, the exchanges in the local area network being performed in accordance with a network protocol of UPnP type: - receiving (I1) a command to simulate the peripheral device from a device in the local area network, said peripheral device being located in an area of radio coverage of BLE type of a second relay device belonging to the local area network, said simulation command comprising an identifier and a MAC address of the peripheral device; - transmitting an advertisement message of a type which is in accordance with the BLE protocol, comprising said identifier and said MAC address of the peripheral device, the first relay device advertising the presence of the peripheral device in the area of radio coverage of BLE type of the master device; - establishing a radio connection of BLE type with the master device; - receiving , from the master device and by means of said radio connection, a request to read a value taken by a characteristic managed by the peripheral device; - receiving said value from the second relay device, said second relay device having obtained it by querying the peripheral device, and - sending the master device said value by means of said radio connection. - receiving (I1) a command to simulate the peripheral device from a device in the local area network, said peripheral device being located in an area of radio coverage of BLE type of a second relay device belonging to the local area network, said simulation command comprising an identifier and a MAC address of the peripheral device; - transmitting an advertisement message of a type which is in accordance with the BLE protocol, comprising said identifier and said MAC address of the peripheral device, the first relay device advertising the presence of the peripheral device in the area of radio coverage of BLE type of the master device; - establishing a radio connection of BLE type with the master device; - receiving , from the master device and by means of said radio connection, a request to read a value taken by a characteristic managed by the peripheral device; - receiving said value from the second relay device, said second relay device having obtained it by querying the peripheral device, and - sending the master device said value by means of said radio connection.
LED light source , comprising - a series connection of at least two LED strings , wherein each of the at least two LED strings corresponds to a single LED or comprises at least two LEDs , - at least one ohmic resistive element , and - at least one switching element , wherein - the at least one ohmic resistive element is connected in series with a first LED string of the at least two LED strings , and - at least two capacitors , wherein - the second capacitor of the at least two capacitors is connected in parallel to the second LED string of the at least two LED strings , characterized in that - the at least one switching element is connected in parallel to the series connection of the at least one ohmic resistive element and the first LED string , - the at least one switching element is configured to bypass in its conductive state the series connection of the at least one ohmic resistive element and the first LED string , and - the first capacitor of the at least two capacitors is connected in parallel to the series connection of the at least one ohmic resistive element and the first LED string . - a series connection of at least two LED strings , wherein each of the at least two LED strings corresponds to a single LED or comprises at least two LEDs , - at least one ohmic resistive element , and - at least one switching element , wherein - the at least one ohmic resistive element is connected in series with a first LED string of the at least two LED strings , and - at least two capacitors , wherein - the second capacitor of the at least two capacitors is connected in parallel to the second LED string of the at least two LED strings , characterized in that - the at least one switching element is connected in parallel to the series connection of the at least one ohmic resistive element and the first LED string , - the at least one switching element is configured to bypass in its conductive state the series connection of the at least one ohmic resistive element and the first LED string , and - the first capacitor of the at least two capacitors is connected in parallel to the series connection of the at least one ohmic resistive element and the first LED string .
A method for controlling heat power to be injected into a hydraulic heating system of a building, said heating system including a heat energy generator , a hydraulic heating circuit in which a heat transfer fluid circulates, a control system able to control heat energy generator and comprising a power calculation module , a hydraulic conductance calculation module , a module for planning power setpoints to be injected and a module for regulating the power injected, the method comprising a plurality of steps, implemented during at least a first period: a) selecting (E1), from different models of the heating system including a model relating the hydraulic conductance of the heating circuit calculated by the hydraulic conductance calculation module and the temperature inside the building, an operating or optimisation model of the heating system to be improved and selecting, from different objectives, of an objective adapted to define the model selected, b) determining (E2), by the planning module , operating setpoints enabling the objective chosen in step a) to be met, c) transmitting (E3) the operating setpoints to the regulation module , applying these setpoints throughout the period and collecting operating data by the power and hydraulic conductance calculation modules, d) analysing (E4), by the planning module , the data collected during the period to correct at least one parameter of the model selected in step a) and defining an improved operating model. a) selecting (E1), from different models of the heating system including a model relating the hydraulic conductance of the heating circuit calculated by the hydraulic conductance calculation module and the temperature inside the building, an operating or optimisation model of the heating system to be improved and selecting, from different objectives, of an objective adapted to define the model selected, b) determining (E2), by the planning module , operating setpoints enabling the objective chosen in step a) to be met, c) transmitting (E3) the operating setpoints to the regulation module , applying these setpoints throughout the period and collecting operating data by the power and hydraulic conductance calculation modules, d) analysing (E4), by the planning module , the data collected during the period to correct at least one parameter of the model selected in step a) and defining an improved operating model.
A polishing pad comprising a polishing surface having a zeta potential of +0.1 mV or more at a pH of 10.0, the polishing pad further comprising a polyurethane having a tertiary amine. a polishing surface having a zeta potential of +0.1 mV or more at a pH of 10.0, the polishing pad further comprising a polyurethane having a tertiary amine.
Cementitious material structure with sensors including at least one substrate , a plurality of sensing elements arranged on the at least one substrate , and further including a waterproofing material layer covering the set formed by the plurality of sensing elements and the at least one substrate , characterized in that it further includes cementitious material involving the whole set formed by the said waterproofing material layer , at least one substrate and plurality of sensing elements , wherein the configuration, the arrangement and the sensor type allow said sensing elements to detect variables external to the cementitious structure based on interaction with a human user.
Method for ascertaining a height profile image of a surface of an object , which is arranged on a receiving table of an apparatus , which has an optical detection device and an illumination device , with which the surface of the object can be illuminated from different illumination directions relative to a perpendicular , which rises vertically on a surface of the receiving table , wherein the optical detection device and the receiving table can be displaced relative to one another and the optical detection device can be pivoted relative to the receiving table , wherein in a depth value ascertaining step a depth value from punctiform object points of the object is ascertained in each case as a distance value to an image plane oriented at right angles to the perpendicular , wherein in the depth value ascertaining step , with the optical detection device , a plurality of stereometric images of the surface of the object are captured at different viewing angles relative to the perpendicular by pivoting the optical detection device relative to the object to change the viewing angle for the images and adapting the object with the movable receiving table in each case to an image detection range of the optical detection device and by a comparison of the plurality of stereometric images and starting from an offset of imaging points ascertained in this case, which are associated with the same punctiform object point, the depth value for the punctiform object point is determined, wherein in a photometric stereo analysis step , starting from a plurality of different photometric images of the surface of the object , which were captured by the optical detection device from different illumination directions in each case during illumination of the object by the illumination device , a height profile image of the surface is produced using an extended photometric stereo analysis method, wherein in the extended stereo analysis method, the constraint is taken into account that a difference of a height profile distance as a distance value of the height profile ascertained using the photometric stereo analysis method to the image plane at the object points for which a depth value was predetermined, is minimised.
A wind power installation having an aerodynamic rotor with horizontal axis with at least one rotor blade , wherein the rotor blade has an active flow control device, which is designed to actively influence a flow over the rotor blade, wherein the flow control device comprises an opening in a rotor blade surface, referred to as a rotor blade surface opening , wherein the flow control device is configured to draw off and/or blow out air through the rotor blade surface opening by way of a controllable air flow, wherein the wind power installation has a controller which is configured to control an amount of the controllable air flow through the rotor blade surface opening according to at least one of the following rules: - if a rotational speed threshold value of a rotational speed (n) of the rotor is exceeded, increasing the maximum controllable airflow successively with increasing rotational speed, - if a torque threshold value of a torque (M) of the rotor is exceeded, increasing the maximum controllable air flow successively with increasing torque (M). wherein the rotor blade has an active flow control device, which is designed to actively influence a flow over the rotor blade, wherein the flow control device comprises an opening in a rotor blade surface, referred to as a rotor blade surface opening , wherein the flow control device is configured to draw off and/or blow out air through the rotor blade surface opening by way of a controllable air flow, wherein the wind power installation has a controller which is configured to control an amount of the controllable air flow through the rotor blade surface opening according to at least one of the following rules: - if a rotational speed threshold value of a rotational speed (n) of the rotor is exceeded, increasing the maximum controllable airflow successively with increasing rotational speed, - if a torque threshold value of a torque (M) of the rotor is exceeded, increasing the maximum controllable air flow successively with increasing torque (M). - if a rotational speed threshold value of a rotational speed (n) of the rotor is exceeded, increasing the maximum controllable airflow successively with increasing rotational speed, - if a torque threshold value of a torque (M) of the rotor is exceeded, increasing the maximum controllable air flow successively with increasing torque (M).
A fixing system for fixing a textile in front of a wall opening in a wall, comprising - a plurality of fixing devices , the fixing devices each being adapted to be fixed to the textile , and - a plurality of retaining devices corresponding to the fixing devices , the retaining devices being adapted to be fixed to a periphery of the wall opening , wherein the fixing devices and the retaining devices are designed to establish a force-locking connection with each other, wherein the retaining devices can be arranged along a circumference of the wall opening in such a way that the textile is only fixed in sections along a circumference of the wall opening , characterized in that the fixing devices each have at least one magnetic or magnetizable element and the retaining devices are each magnetizable or magnetic in a manner corresponding to the magnetic or magnetizable element in such a way that the fixing devices can be attached to the respective retaining device in a magnetically force-locking manner. - a plurality of fixing devices , the fixing devices each being adapted to be fixed to the textile , and - a plurality of retaining devices corresponding to the fixing devices , the retaining devices being adapted to be fixed to a periphery of the wall opening , wherein the fixing devices and the retaining devices are designed to establish a force-locking connection with each other, wherein the retaining devices can be arranged along a circumference of the wall opening in such a way that the textile is only fixed in sections along a circumference of the wall opening , characterized in that the fixing devices each have at least one magnetic or magnetizable element and the retaining devices are each magnetizable or magnetic in a manner corresponding to the magnetic or magnetizable element in such a way that the fixing devices can be attached to the respective retaining device in a magnetically force-locking manner.
A method for utilising lithium batteries containing the steps: (a) decomposition of comminuted material , which contains comminuted components of electrodes of lithium batteries, using concentrated sulphuric acid at a decomposition temperature (T A ) of at least 100°C, in particular at least 140°C, so that waste gas and a decomposition material are produced, (b) discharging of the waste gas and (c) the wet chemical extraction of at least one metallic component of the decomposition material . (a) decomposition of comminuted material , which contains comminuted components of electrodes of lithium batteries, using concentrated sulphuric acid at a decomposition temperature (T A ) of at least 100°C, in particular at least 140°C, so that waste gas and a decomposition material are produced, (b) discharging of the waste gas and (c) the wet chemical extraction of at least one metallic component of the decomposition material .