mhurhangee/patent-ind-claim-en huggingface dataset:
Sports shoe, comprising a sole and an upper that rises up from said sole , wherein said upper comprises an inner part or core , in which said inner part or core has an inner housing volume (RZ) for a foot of a user defined, in use, by the inner volume of said inner part or core , wherein said inner part or core is positioned inside said upper of said sports shoe and comprises an upper-shaped portion , wherein said inner part or core comprises a ground resting portion (3c2), wherein said ground resting portion (3c2) comes into contact with the ground, when said inner part or core is extracted from the shoe , or with an inner surface of said sole , when said inner part or core is inserted into the upper , wherein said upper-shaped portion rises up from said ground resting portion (3c2), whereby said upper-shaped portion is made of an elasticated material and/or a woven material, said inner part or core being adherent to the foot of the user and having a thickness such to not interfere with the comfort, athletic performances and the transfer of energy from the user to said sole during the sports action, whereby said upper of said sports shoe comprises a fixed portion and a movable portion at least partially displaceable with respect to said fixed portion , thus to adjust said inner housing volume (RZ) for the foot of the user inside said sports shoe , characterized in that said sports shoe comprising tightening-release means comprising two cable elements for the mutually displaceable portions of said upper , the cable elements comprise respective first ends fixed to the movable portion and respective second ends engageably adjustable with the fixed portion .
A device for the placing and contacting of a test contact of a test contact arrangement arranged on a contact carrier , wherein the device features a contact head having at least one transmission channel for transmitting thermal energy and transferring a vacuum, wherein the contact head is provided with a test contact receptacle at its contact end in the area of a channel mouth , characterised in that the test contact receptacle has a receiving gap formed between two parallel receiving cheeks for receiving the test contact and connected with the transmission channel, wherein the receiving cheeks have contact surfaces at their contact ends for contacting a solder deposit arranged on the contact carrier, in order to produce a heat conducting contact with the solder material of the solder deposit.
Use of a safety device for protecting a drinking water installation connected to the public drinking water supply with respect to a fluid guiding system guiding a fluid which is connected to the drinking water installation , wherein the safety device is to be installed in the region of the fluid guiding system in order to prevent contamination of the drinking water guided in the drinking water installation , and wherein the safety device comprises a safety fitting preventing backflow of the fluid from the fluid guiding system into the drinking water installation and at least one germ filter designed as an adsorption filter which contains a filter material with an electrokinetic potential in an aqueous environment.
A coffee roasting apparatus comprising: a compartment for holding coffee beans ; a roasting element for roasting the coffee beans in said compartment; and a controller for controlling the roasting element, characterized in that the controller is adapted to control the roasting element as a function of a rate of change in the total concentration of volatile organic compounds residing in the compartment.
A multilayer reflection electrode film comprising: an Ag film that is formed of Ag or an Ag alloy; and a transparent conductive oxide film that is disposed on the Ag film, wherein the transparent conductive oxide film is formed of an oxide that includes Zn and Ga and further includes one element or two or more elements selected from the group consisting of Sn, Y, and Ti, and wherein atomic proportions with respect to all the metal elements included in the transparent conductive oxide film are Ga: 0.5 at% to 30.0 at%, each of Sn, Y, and Ti: 0.1 at% to 10.0 at%, and a balance of Zn. an Ag film that is formed of Ag or an Ag alloy; and a transparent conductive oxide film that is disposed on the Ag film, wherein the transparent conductive oxide film is formed of an oxide that includes Zn and Ga and further includes one element or two or more elements selected from the group consisting of Sn, Y, and Ti, and wherein atomic proportions with respect to all the metal elements included in the transparent conductive oxide film are Ga: 0.5 at% to 30.0 at%, each of Sn, Y, and Ti: 0.1 at% to 10.0 at%, and a balance of Zn.
A lane selection method for an automatic-driving vehicle, comprising: providing a road environment model for a preset range around a vehicle (S1), wherein the road environment model comprises a lane classification, a quantity and obstacle information of lanes in the preset range around the vehicle; acquiring the lane classification according to the road environment model (S2); acquiring the quantity of lanes corresponding to a driving direction of the vehicle and the obstacle information of all the lanes corresponding to the driving direction of the vehicle according to the road environment model, if the vehicle is driving in a normal lane (S3); characterized in that in a case that the quantity of the lanes corresponding to the driving direction of the vehicle is greater than or equal to three, performing stationary obstacle determination on the lanes in a priority sequence from left to right starting from a second left lane of the lanes corresponding to the driving direction of the vehicle, and selecting a lane without any stationary obstacle as a target lane (S4), wherein the normal lane is a lane between a position where the vehicle leaves an acceleration lane to enter an expressway main road and a position where the vehicle leaves the expressway main road to enter a deceleration lane. providing a road environment model for a preset range around a vehicle (S1), wherein the road environment model comprises a lane classification, a quantity and obstacle information of lanes in the preset range around the vehicle; acquiring the lane classification according to the road environment model (S2); acquiring the quantity of lanes corresponding to a driving direction of the vehicle and the obstacle information of all the lanes corresponding to the driving direction of the vehicle according to the road environment model, if the vehicle is driving in a normal lane (S3); characterized in that in a case that the quantity of the lanes corresponding to the driving direction of the vehicle is greater than or equal to three, performing stationary obstacle determination on the lanes in a priority sequence from left to right starting from a second left lane of the lanes corresponding to the driving direction of the vehicle, and selecting a lane without any stationary obstacle as a target lane (S4), wherein the normal lane is a lane between a position where the vehicle leaves an acceleration lane to enter an expressway main road and a position where the vehicle leaves the expressway main road to enter a deceleration lane.
A spark plug (1; 1a), comprising: an insulator having an axial hole formed in an axis direction of the spark plug; a center electrode retained in one end side of the axial hole ; a metal terminal retained in the other end side of the axial hole ; an electrical connection part arranged in the axial hole to establish electrical connection between the center electrode and the metal terminal ; and a metal shell holding therein the insulator , wherein the electrical connection part (60; 60a) includes a conductor having a first crystal phase formed of a Fe-containing oxide and a second crystal phase formed of a conductive metal oxide characterized in that said conductive metal oxide is made of perovskite crystal structure. an insulator having an axial hole formed in an axis direction of the spark plug; a center electrode retained in one end side of the axial hole ; a metal terminal retained in the other end side of the axial hole ; an electrical connection part arranged in the axial hole to establish electrical connection between the center electrode and the metal terminal ; and a metal shell holding therein the insulator , wherein the electrical connection part (60; 60a) includes a conductor having a first crystal phase formed of a Fe-containing oxide and a second crystal phase formed of a conductive metal oxide characterized in that said conductive metal oxide is made of perovskite crystal structure.
A light generating device configured to generate in a first control mode device light , wherein the light generating device comprises (i) a first source of first light , and (ii) a second source of second light , different from the first light , wherein the second light comprises cyan-like light having a wavelength selected from the range of 470-520 nm, wherein the device light comprises the first light and the second light , and wherein in the first control mode the device light is white light, and wherein the light generating device is configured to provide in the first control mode the device light having a MDEF value of ≥ 5.43-9.31 ∗ v', wherein v' refers to the color coordinates in the CIELUV color space .wherein the MDEF is defined as: MDEF = 1.104 ∗ ∑ λ = 380 780 SPD λ m λ Δ λ ∑ λ = 380 780 SPD λ V λ Δ λ wherein SPD(λ) is the spectral power distribution of the light emitted by the light generating device , m(λ) is the melanopic sensitivity function, the V(λ) is the photopic sensitivity, wherein the light generating device is configured to generate in the first control mode device light having a color point within 15 SDCM from the black body locus, the light generating device being characterized in that the second light has a dominant wavelength selected from the range of 474-500 nm, wherein the first light has a correlated color temperature selected from the range of 2500-4500 K.
A capsule that comprises a cone-shaped skirt and an upper closure disc characterized in that the cone-shaped skirt is an aluminum monolayer with a thickness comprised in a range from 60 microns to 150 microns and the disc is made of an aluminum monolayer of 40 microns to 100 microns and wherein one of the edges of the skirt has an aluminum tab transversely adhered to the inside of the skirt.
An LED filament for providing LED filament light , comprising: an elongated carrier ; and a plurality of light emitting diodes arranged on the elongated carrier, wherein the LED filament is arranged in a coiled-coil configuration, and wherein the coiled-coil configuration comprises a primary coil having a primary diameter D 1 , which primary coil is coiled into a secondary coil having a secondary diameter D 2 . an elongated carrier ; and a plurality of light emitting diodes arranged on the elongated carrier, wherein the LED filament is arranged in a coiled-coil configuration, and wherein the coiled-coil configuration comprises a primary coil having a primary diameter D 1 , which primary coil is coiled into a secondary coil having a secondary diameter D 2 .
An apparatus for detecting an occupancy of an equipment by a person , the apparatus comprising: a memory having stored therein a status of the equipment as either occupied or unoccupied by the person, and a predetermined acceleration limit value; an accelerometer unit in communication with the memory, the accelerometer unit in operation, continuously measuring an acceleration value of the equipment at each of a plurality of discrete time intervals, the accelerometer unit accessing the acceleration limit value from the memory and comparing each acceleration value thereto, the accelerometer unit emitting a movement signal indicative of a movement of the equipment upon a consecutive number N of the acceleration values being greater than or equal to the acceleration limit value; a processor in communication with the accelerometer unit and with the memory, the processor operable between an active mode upon receiving the movement signal from the accelerometer unit and an inactive mode, the processor in the active mode accessing the status of the equipment from the memory and emitting an occupied signal if the previous status of the equipment is unoccupied; and a power source supplying electrical power to the accelerometer unit and to the processor. a memory having stored therein a status of the equipment as either occupied or unoccupied by the person, and a predetermined acceleration limit value; an accelerometer unit in communication with the memory, the accelerometer unit in operation, continuously measuring an acceleration value of the equipment at each of a plurality of discrete time intervals, the accelerometer unit accessing the acceleration limit value from the memory and comparing each acceleration value thereto, the accelerometer unit emitting a movement signal indicative of a movement of the equipment upon a consecutive number N of the acceleration values being greater than or equal to the acceleration limit value; a processor in communication with the accelerometer unit and with the memory, the processor operable between an active mode upon receiving the movement signal from the accelerometer unit and an inactive mode, the processor in the active mode accessing the status of the equipment from the memory and emitting an occupied signal if the previous status of the equipment is unoccupied; and a power source supplying electrical power to the accelerometer unit and to the processor.
A downlink scheduling data sending method, comprising: receiving , by a base station, downlink scheduling data sent by a core network device to a terminal; and when it is determined by the base station that the downlink scheduling data is a paging message, determining, by the base station, that the terminal monitors the paging message by using a first discontinuous reception, DRX, monitoring cycle according to a scheduling identifier in the idle state, sending , by the base station, the paging message to the terminal by using a first sending cycle, wherein a duration of the first sending cycle is in a unit of minute or hour, when it is determined by the base station that the downlink scheduling data is downlink data, determining, by the base station, that the terminal monitors the downlink data by using a second DRX monitoring cycle according to a scheduling identifier in the connected state, and sending, by the base station the downlink data to the terminal by using a second sending cycle, wherein a duration of the second sending cycle is shorter than the duration of the first sending cycle and in a unit of millisecond or second; wherein before the sending the downlink data to the terminal by using the second sending cycle, the method further comprises: sending, by the base station, the second DRX monitoring cycle to the terminal in a dedicated signalling manner. receiving , by a base station, downlink scheduling data sent by a core network device to a terminal; and when it is determined by the base station that the downlink scheduling data is a paging message, determining, by the base station, that the terminal monitors the paging message by using a first discontinuous reception, DRX, monitoring cycle according to a scheduling identifier in the idle state, sending , by the base station, the paging message to the terminal by using a first sending cycle, wherein a duration of the first sending cycle is in a unit of minute or hour, when it is determined by the base station that the downlink scheduling data is downlink data, determining, by the base station, that the terminal monitors the downlink data by using a second DRX monitoring cycle according to a scheduling identifier in the connected state, and sending, by the base station the downlink data to the terminal by using a second sending cycle, wherein a duration of the second sending cycle is shorter than the duration of the first sending cycle and in a unit of millisecond or second; wherein before the sending the downlink data to the terminal by using the second sending cycle, the method further comprises: sending, by the base station, the second DRX monitoring cycle to the terminal in a dedicated signalling manner.
Lower leg support for a vehicle seat , comprising a first fixing element and comprising a second fixing element , which are designed to fix the lower leg support to opposing side regions of the vehicle seat , wherein a first movement element is rotatably connected to the first fixing element and a second movement element is fixedly connected to the second fixing element , wherein a first support element is provided at an end of the first movement element that faces away from the first fixing element in a use position, which support element is rotatably held on said movement element and can be locked by means of a locking device to a second support element which is rotatably arranged on an end of the second movement element that faces away from the second fixing element in the use position, wherein the two support elements are movable from the use position into a non-use position by means of the movement elements , and, in the use position, the first support element , which is unlocked from the second support element , is movable into a table position by rotating the first movement element relative to the first fixing element .
Pneumatic vehicle tyre having an acoustic element • wherein the acoustic element is disposed in a tyre interior space on an internal tyre surface that is opposite a tread ; • wherein the acoustic element has a multiplicity of cavity resonators , wherein each cavity resonator has a cavity and an opening region , where the opening region contains an opening in a surface of the acoustic element that faces the tyre interior space , and the cavity is connected to the opening ; • wherein the acoustic element has a first damping element which is configured from a porous material and is suitable for reducing noise; and wherein the first damping element fully or partially delimits at least one cavity resonator in the region of the cavity thereof and/or the opening region thereof, characterized in that • the acoustic element has a layer , in that the layer has at least one passage opening , in that the at least one passage opening contains in each case fully or partially the opening region of a cavity resonator , and in that the layer for an acoustic wave impacting the layer has an acoustic reflectance of at least 0.80, preferably of at least 0.95, particularly preferably of at least 0.99, measured at a reference frequency f 0 = 250 Hz, and in that • the first damping element is disposed between the layer and the internal tyre surface that is contiguous to the acoustic element . • wherein the acoustic element is disposed in a tyre interior space on an internal tyre surface that is opposite a tread ; • wherein the acoustic element has a multiplicity of cavity resonators , wherein each cavity resonator has a cavity and an opening region , where the opening region contains an opening in a surface of the acoustic element that faces the tyre interior space , and the cavity is connected to the opening ; • wherein the acoustic element has a first damping element which is configured from a porous material and is suitable for reducing noise; and wherein the first damping element fully or partially delimits at least one cavity resonator in the region of the cavity thereof and/or the opening region thereof, • the acoustic element has a layer , in that the layer has at least one passage opening , in that the at least one passage opening contains in each case fully or partially the opening region of a cavity resonator , and in that the layer for an acoustic wave impacting the layer has an acoustic reflectance of at least 0.80, preferably of at least 0.95, particularly preferably of at least 0.99, measured at a reference frequency f 0 = 250 Hz, and in that • the first damping element is disposed between the layer and the internal tyre surface that is contiguous to the acoustic element .
Handheld laser distance measuring device for the contactless distance measurement between the laser distance measuring device and a remote object using a laser beam which can be emitted by the laser distance measuring device , with a device housing and an energy supply device, wherein the laser distance measuring device has a device-side coupling device paired with the device housing , said coupling device being set up to reversibly arrange at least one attachment device on the laser distance measuring device , wherein at least one additional functionality can be provided due to the arrangement of the attachment device on the laser distance measuring device , characterized in that the device-side coupling device is set up to transmit electrical energy to an electrical energy utilization unit of an attachment device arranged on the laser distance measuring device .
A closed container comprising ammonium nitrate (AN) particles in an amount of 91 to 99.75 weight% and desiccant in an amount of 0.25 and 9 weight%, wherein - the AN particles have a water content of between 0 and 0.7 weight%; and - the desiccant comprises particles containing between 50 and 95 weight% of AN and between 5 and 50 weight% of magnesium nitrate dispersed in the AN. - the AN particles have a water content of between 0 and 0.7 weight%; and - the desiccant comprises particles containing between 50 and 95 weight% of AN and between 5 and 50 weight% of magnesium nitrate dispersed in the AN.
A charger (1; 100) for charging a rechargeable energy source of a personal care device (2; 200), comprising a charger housing having a charging region for positioning the personal care device (2; 200); a charging circuit for performing a charging procedure of the rechargeable energy source of the personal care device ; a motion sensor for detecting a motion of at least a portion of the charger (1; 100); a controller coupled with the charging circuit and the motion sensor ; wherein the controller is arranged to activate the charging circuit when the controller receives a motion signal from the motion sensor indicating a placement of the personal care device in the charging region and/or to deactivate the charging circuit when the controller receives a motion signal from the motion sensor indicating a removal of the personal care device (2; 200) from the charging region ; and characterized in that the motion sensor is realized as an accelerometer and/or as a gyroscope and/or wherein the motion sensor is realized as a mechanical vibration switch. a charger housing having a charging region for positioning the personal care device (2; 200); a charging circuit for performing a charging procedure of the rechargeable energy source of the personal care device ; a motion sensor for detecting a motion of at least a portion of the charger (1; 100); a controller coupled with the charging circuit and the motion sensor ; wherein the controller is arranged to activate the charging circuit when the controller receives a motion signal from the motion sensor indicating a placement of the personal care device in the charging region and/or to deactivate the charging circuit when the controller receives a motion signal from the motion sensor indicating a removal of the personal care device (2; 200) from the charging region ; and characterized in that the motion sensor is realized as an accelerometer and/or as a gyroscope and/or wherein the motion sensor is realized as a mechanical vibration switch.