mhurhangee/ep-ind-claims huggingface dataset:
Ultrasonic transducer with a housing, an ultrasonic window provided in a first region of the housing for transmitting ultrasonic waves between the interior of the ultrasonic transducer and the exterior of the ultrasonic transducer, and a transducer element located in the housing adjacent to the ultrasonic window, wherein ultrasonic waves can be transmitted as housing waves between the first region of the housing via at least one intermediate second region of the housing and a third region of the housing opposite the first region of the housing, characterized in that the second region of the housing is made sleeve-shaped in the direction of axial extension and at least one mechanical resonator (8, 9) is provided in the second region of the housing, wherein the resonator (8, 9) is designed as a hollow ring or a step with an upper flat wall, with a lower flat wall and with an end wall that connects the upper flat wall to the lower flat wall.
An ultrasonic surgical instrument connectable to a generator, the ultrasonic surgical instrument comprising: an end effector comprising an ultrasonic blade; an ultrasonic transducer acoustically coupled to the ultrasonic blade, the ultrasonic transducer configured to ultrasonically oscillate the ultrasonic blade in response to a drive signal from the generator; and a control circuit coupled to the ultrasonic transducer, characterised in that the control circuit is configured to: apply varying power levels to the ultrasonic transducer via the ultrasonic generator; measure impedances of the ultrasonic transducer corresponding to the varying power levels; and determine a location of tissue positioned within the end effector according to a difference between the impedances of the ultrasonic transducer relative to a threshold. an end effector comprising an ultrasonic blade; an ultrasonic transducer acoustically coupled to the ultrasonic blade, the ultrasonic transducer configured to ultrasonically oscillate the ultrasonic blade in response to a drive signal from the generator; and a control circuit coupled to the ultrasonic transducer, characterised in that the control circuit is configured to: apply varying power levels to the ultrasonic transducer via the ultrasonic generator; measure impedances of the ultrasonic transducer corresponding to the varying power levels; and determine a location of tissue positioned within the end effector according to a difference between the impedances of the ultrasonic transducer relative to a threshold. apply varying power levels to the ultrasonic transducer via the ultrasonic generator; measure impedances of the ultrasonic transducer corresponding to the varying power levels; and determine a location of tissue positioned within the end effector according to a difference between the impedances of the ultrasonic transducer relative to a threshold.
Actuating device (10;50;80) comprising: - a housing (15;55;85) inside of which an actuating element (11;51;81) is provided, the actuating element (11;51;81) being slidably displaceable along a first axis (A,A',A") between a first operative position and a second non-operative position and sensing means adapted to detect the positioning of the actuating element (11;51;81) at at least one of the first or the second position; - the actuating element (11;51;81) being coupled to at least one triggering part (31,32;52a,59;83,88) so that a positioning of the actuating element (11;51;81) at one of the first or the second position corresponds to the positioning of the at least one triggering part (31,32;52a,59;83,88) at at least one sensing position; - the housing (15;55;85) comprising at least one reading opening (16a,16b;56a,56b;86a,86b) through which the positioning of at least one triggering part (31,32;52a,59;83,88) at the at least one sensing position can be detected; - the sensing means comprising at least one sensing element associated with the at least one sensing position in order to detect the positioning of at least one triggering part (31,32;52a,59;83,88) at the at least one sensing position, the sensing means being placed outside the housing (15;55;85) and being connected to the same at the reading opening (16a,16b;56a,56b;86a,86b); characterized in that the at least one triggering part (31,32;52a,59;83,88) is completely housed inside the housing (15;55;85) and the at least one reading opening (16a,16b;56a,56b;86a,86b) is sealed with a cover made of a material adapted to allow the detection of the triggering part (31,32;52a,59;83,88) when placed at the at least one sensing position. - a housing (15;55;85) inside of which an actuating element (11;51;81) is provided, the actuating element (11;51;81) being slidably displaceable along a first axis (A,A',A") between a first operative position and a second non-operative position and sensing means adapted to detect the positioning of the actuating element (11;51;81) at at least one of the first or the second position; - the actuating element (11;51;81) being coupled to at least one triggering part (31,32;52a,59;83,88) so that a positioning of the actuating element (11;51;81) at one of the first or the second position corresponds to the positioning of the at least one triggering part (31,32;52a,59;83,88) at at least one sensing position; - the housing (15;55;85) comprising at least one reading opening (16a,16b;56a,56b;86a,86b) through which the positioning of at least one triggering part (31,32;52a,59;83,88) at the at least one sensing position can be detected; - the sensing means comprising at least one sensing element associated with the at least one sensing position in order to detect the positioning of at least one triggering part (31,32;52a,59;83,88) at the at least one sensing position, the sensing means being placed outside the housing (15;55;85) and being connected to the same at the reading opening (16a,16b;56a,56b;86a,86b);
Method for determining a level of hygiene H of a washing machine with an outer tub, a drum for receiving items of laundry, a drive motor for the drum and a control device for controlling at least one wash program, wherein an impedance signal is measured with an impedance sensor (9, 10) arranged in the washing machine, said impedance sensor coming into contact with an aqueous liquid during the course of a wash program, characterised in that the impedance signal is evaluated as a degree of the level of hygiene H of the washing machine in respect of deposits on the impedance sensor (9, 10) and that before carrying out a first laundry treatment in the washing machine in the presence of water, an impedance signal of the impedance sensor (9, 10) is measured and is stored in the control device as a reference measurement which corresponds to a maximum level of hygiene H max, wherein an association, stored in the control device, between the impedance signal and the type and/or quantity of deposits on the impedance sensor (9, 10) is used.
A method for indicating per-packet quality of service, QoS in vehicle-to-everything, V2X, communications by a wireless communications device, comprising: obtaining, at the wireless communications device, a packet generated for a first radio access technology, RAT from an application executing via a processor of the wireless communication device wherein the packet includes a first QoS value associated with the first RAT and wherein the packet is intended for sidelink communication to one or more other devices, wherein the first RAT is long term evolution, LTE; determining to transmit the packet to the one or more other devices over a sidelink channel and using a second RAT, wherein the second RAT is a NR RAT, wherein determining to transmit the packet using the second RAT is based at least in part on at least one of an identifier related to the application, a stored policy for broadcasting packets, a current load of the first RAT or the second RAT, or a transmit power requirement; mapping, based on determining to transmit the packet using the second RAT, the first QoS value to a second QoS value, the second QoS value associated with the second RAT, and wherein the first QoS value is ProSe Per Packet Priority PPPP, and the second QoS value is 5G QoS identifier, 5Q1; indicating the second QoS value in the packet, wherein indicating comprises modifying the QoS value indicated in the packet from a format of the first QoS value to a different format of the second QoS value; and transmitting, using the second RAT, the packet with the second QoS value from the wireless communications device to the one or more other devices over the sidelink channel. obtaining, at the wireless communications device, a packet generated for a first radio access technology, RAT from an application executing via a processor of the wireless communication device wherein the packet includes a first QoS value associated with the first RAT and wherein the packet is intended for sidelink communication to one or more other devices, wherein the first RAT is long term evolution, LTE; determining to transmit the packet to the one or more other devices over a sidelink channel and using a second RAT, wherein the second RAT is a NR RAT, wherein determining to transmit the packet using the second RAT is based at least in part on at least one of an identifier related to the application, a stored policy for broadcasting packets, a current load of the first RAT or the second RAT, or a transmit power requirement; mapping, based on determining to transmit the packet using the second RAT, the first QoS value to a second QoS value, the second QoS value associated with the second RAT, and wherein the first QoS value is ProSe Per Packet Priority PPPP, and the second QoS value is 5G QoS identifier, 5Q1; indicating the second QoS value in the packet, wherein indicating comprises modifying the QoS value indicated in the packet from a format of the first QoS value to a different format of the second QoS value; and transmitting, using the second RAT, the packet with the second QoS value from the wireless communications device to the one or more other devices over the sidelink channel.
Facade element holder, comprising - a first profile element, designed as a longitudinal profile to be mounted horizontally and component of the substructure of a facade fastening; - a second profile element, designed as an adapter to be attached to a facade element; - wherein the first profile element has two sections A, B (110, 120), wherein section A has a first surface shape X and section B has a second surface shape Y; and - the second profile element also comprises two sections C, D (210, 220), wherein section C has a first surface shape X' and section D has a second surface shape Y'; and - X and X' as well as Y and Y' have substantially the same contour in pairs diametrically opposite to each other; and - the distances from A to B as well as C to D are selected to be substantially equally large, and - the spatial orientation of A and B in the first profile element as well as C and D in the second profile element is designed in such a way that the first and second profile elements (100, 200) can engage positively in one another in section A and section C as well as in section B and section D; wherein the facade element holder comprises a securing element; characterized in that the securing element is designed as a screw pin which has at its first end a drill tip which merges into a thread-free shank which in turn adjoins a threaded section which is adjoined by a head in the form of a flange with a force application, wherein the threaded section engages only in the second profile element when assembled in accordance with the regulations, wherein the screw pin acts only as a securing device in the first profile element. - a first profile element, designed as a longitudinal profile to be mounted horizontally and component of the substructure of a facade fastening; - a second profile element, designed as an adapter to be attached to a facade element; - wherein the first profile element has two sections A, B (110, 120), wherein section A has a first surface shape X and section B has a second surface shape Y; and - the second profile element also comprises two sections C, D (210, 220), wherein section C has a first surface shape X' and section D has a second surface shape Y'; and - X and X' as well as Y and Y' have substantially the same contour in pairs diametrically opposite to each other; and - the distances from A to B as well as C to D are selected to be substantially equally large, and - the spatial orientation of A and B in the first profile element as well as C and D in the second profile element is designed in such a way that the first and second profile elements (100, 200) can engage positively in one another in section A and section C as well as in section B and section D;
A method of subsea distribution of electric power from a number of windmills to consumers onshore, comprising: - connecting every windmill to a cable that is connected to a termination assembly for three-phase high voltage submarine cables (1a-c) comprising: • a water-tight enclosure with three cable lead-in means (3a-c) for sealed entry of each cable (1a-c) into the enclosure, • nine T-connectors (20,21-29) within said enclosure for receiving three phase conductors (31,32,33) per cable (1a-c), and • lifting means located on the enclosure at an opposite end in relation to said lead-in means (3a-c), - connecting two other cables (1a,1c) to said termination assembly, the two other cables (1a,1c) belonging to a main cable for supplying produced electric energy from a number of windmills, to consumers onshore, in order to electrically connect each phase of the windmill cable to each corresponding phase of the two other cables (1a,1c). - connecting every windmill to a cable that is connected to a termination assembly for three-phase high voltage submarine cables (1a-c) comprising: • a water-tight enclosure with three cable lead-in means (3a-c) for sealed entry of each cable (1a-c) into the enclosure, • nine T-connectors (20,21-29) within said enclosure for receiving three phase conductors (31,32,33) per cable (1a-c), and • lifting means located on the enclosure at an opposite end in relation to said lead-in means (3a-c), • a water-tight enclosure with three cable lead-in means (3a-c) for sealed entry of each cable (1a-c) into the enclosure, • nine T-connectors (20,21-29) within said enclosure for receiving three phase conductors (31,32,33) per cable (1a-c), and • lifting means located on the enclosure at an opposite end in relation to said lead-in means (3a-c), - connecting two other cables (1a,1c) to said termination assembly, the two other cables (1a,1c) belonging to a main cable for supplying produced electric energy from a number of windmills, to consumers onshore, in order to electrically connect each phase of the windmill cable to each corresponding phase of the two other cables (1a,1c).
An insulating glass unit including two or more glass sheets disposed to face each other via a spacer interposed between the glass sheets so as to form an air space layer between the glass sheets, characterized in that the spacer is formed of a thermoplastic resin composition having a JIS A hardness of 10 to 90 at 25 °C, the thermoplastic resin composition containing a butyl type rubber, a crystalline polyolefin, a desiccant and an inorganic filler, a percentage of the butyl type rubber is 90 to 100 mass%, and a percentage of the crystalline polyolefin is 1 to 10 mass% with respect to a total amount of the butyl type rubber and the crystalline polyolefin, a proportion of the inorganic filler is 200 parts by mass or less with respect to a total of 100 parts by mass of the butyl type rubber and the crystalline polyolefin, and a percentage of dispersion defined by ISO 11345:2006 E method is 25% or more, wherein the butyl type rubber contains a high molecular weight butyl type rubber and a low molecular weight butyl type rubber, the high molecular weight butyl type rubber has a number average molecular weight of 55000 or more and 150000 or less, and the low molecular weight butyl type rubber has a number average molecular weight of 35000 or more and 50000 or less. the spacer is formed of a thermoplastic resin composition having a JIS A hardness of 10 to 90 at 25 °C, the thermoplastic resin composition containing a butyl type rubber, a crystalline polyolefin, a desiccant and an inorganic filler, a percentage of the butyl type rubber is 90 to 100 mass%, and a percentage of the crystalline polyolefin is 1 to 10 mass% with respect to a total amount of the butyl type rubber and the crystalline polyolefin, a proportion of the inorganic filler is 200 parts by mass or less with respect to a total of 100 parts by mass of the butyl type rubber and the crystalline polyolefin, and a percentage of dispersion defined by ISO 11345:2006 E method is 25% or more, wherein the butyl type rubber contains a high molecular weight butyl type rubber and a low molecular weight butyl type rubber, the high molecular weight butyl type rubber has a number average molecular weight of 55000 or more and 150000 or less, and the low molecular weight butyl type rubber has a number average molecular weight of 35000 or more and 50000 or less.
A system for renal catherization, comprising: an ablation catheter adapted for ablation of the renal nerve, wherein the ablation catheter has an electrode mounted thereon and is adapted for insertion into a renal artery of a patient wherein the renal artery has a wall defining a lumen; a generator configured to generate a stimulating signal for application via the electrode to a portion of the wall of the lumen of the renal artery; wherein the generator generates high frequency pulses for stimulating a portion of the wall of the lumen of the renal artery; means for monitoring the blood pressure of the patient to permit identification of a location on the wall of the lumen of the renal artery near the renal nerve; and, means for causing the electrode to ablate the renal nerve; characterized by the frequency of the generated high-frequency pulses for stimulating a portion of the wall of the lumen of the renal artery being greater than approximately 20 KHz. an ablation catheter adapted for ablation of the renal nerve, wherein the ablation catheter has an electrode mounted thereon and is adapted for insertion into a renal artery of a patient wherein the renal artery has a wall defining a lumen; a generator configured to generate a stimulating signal for application via the electrode to a portion of the wall of the lumen of the renal artery; wherein the generator generates high frequency pulses for stimulating a portion of the wall of the lumen of the renal artery; means for monitoring the blood pressure of the patient to permit identification of a location on the wall of the lumen of the renal artery near the renal nerve; and, means for causing the electrode to ablate the renal nerve; characterized by the frequency of the generated high-frequency pulses for stimulating a portion of the wall of the lumen of the renal artery being greater than approximately 20 KHz.
Process for manufacturing a mirror without a copper layer, comprising the following steps: a) providing a glass substrate, b) placing the glass substrate in contact with a silvering solution so as to form a silver layer on the substrate, c) performing a sequence of steps consisting essentially in: i. placing the silver layer in contact with a single passivation solution comprising bismuth ions and tin ions, ii. applying at least one coat of paint to the silver layer, iii. optionally rinsing and/or drying between each step. a) providing a glass substrate, b) placing the glass substrate in contact with a silvering solution so as to form a silver layer on the substrate, c) performing a sequence of steps consisting essentially in: i. placing the silver layer in contact with a single passivation solution comprising bismuth ions and tin ions, ii. applying at least one coat of paint to the silver layer, iii. optionally rinsing and/or drying between each step. i. placing the silver layer in contact with a single passivation solution comprising bismuth ions and tin ions, ii. applying at least one coat of paint to the silver layer, iii. optionally rinsing and/or drying between each step.
A laminated polyester film comprising a polyester film, coating layers respectively formed on both surfaces of the polyester film, said coating layers each comprising a condensed polycyclic aromatic compound, and 5 to 90 % by weight of a urethane resin or 5 to 80 % by weight of an acrylic resin, and a light diffusion layer formed on the coating layer and which has a thickness of 1 to 100 μm and which comprises a binder and particles having an average particle diameter of 1 to 50 μm, wherein the content of the condensed polycyclic aromatic moieties in the condensed polycyclic aromatic compound in the coating layer is in the range of 5 to 80 % by weight, and the content of the condensed polycyclic aromatic moieties in the coating layer is in the range of 1 to 70 % by weight.
A water release assembly comprising: a fluid flow passage with an inlet and an outlet; a flow meter for detecting fluid flow through the fluid flow passage; an attachment structure for attaching the fluid flow passage to an external fluid flow conduit; and a fluid flow processing module configured to: acquire and store location data, wherein the location data is related to a geographic location of the fluid flow processing module, store fluid flow data, wherein the fluid flow data is related to fluid flow through the fluid flow passage and is based, at least in part, on the fluid flow detected by the flow meter, and wirelessly transmit the location data and the fluid flow data to an external computer, characterized in that: the water release assembly further comprises a flow meter housing connected to the water release assembly, and an accelerometer positioned in the flow meter housing; the accelerometer is configured to generate orientation data with respect to the ground; and the fluid flow processing module is further configured to exit a sleep state based on the orientation data, and enter a sleep state based on the orientation data. a fluid flow passage with an inlet and an outlet; a flow meter for detecting fluid flow through the fluid flow passage; an attachment structure for attaching the fluid flow passage to an external fluid flow conduit; and a fluid flow processing module configured to: acquire and store location data, wherein the location data is related to a geographic location of the fluid flow processing module, store fluid flow data, wherein the fluid flow data is related to fluid flow through the fluid flow passage and is based, at least in part, on the fluid flow detected by the flow meter, and wirelessly transmit the location data and the fluid flow data to an external computer, acquire and store location data, wherein the location data is related to a geographic location of the fluid flow processing module, store fluid flow data, wherein the fluid flow data is related to fluid flow through the fluid flow passage and is based, at least in part, on the fluid flow detected by the flow meter, and wirelessly transmit the location data and the fluid flow data to an external computer, characterized in that: the water release assembly further comprises a flow meter housing connected to the water release assembly, and an accelerometer positioned in the flow meter housing; the accelerometer is configured to generate orientation data with respect to the ground; and the fluid flow processing module is further configured to exit a sleep state based on the orientation data, and enter a sleep state based on the orientation data. the water release assembly further comprises a flow meter housing connected to the water release assembly, and an accelerometer positioned in the flow meter housing; the accelerometer is configured to generate orientation data with respect to the ground; and the fluid flow processing module is further configured to exit a sleep state based on the orientation data, and enter a sleep state based on the orientation data.