mhurhangee/patent-ind-claim-en huggingface dataset:
Catalyst comprising a support based on alumina or silica or silica-alumina, an active phase consisting of nickel, molybdenum and tungsten, and phosphorus, characterized in that : - the content of nickel, measured in the NiO form, is between 3% and 4% by weight, with respect to the total weight of the catalyst, - the content of molybdenum, measured in the MoO 3 form, is between 2% and 4% by weight, with respect to the total weight of the catalyst, - the content of tungsten, measured in the WO 3 form, is between 34% and 40% by weight, with respect to the total weight of the catalyst, - the content of phosphorus, measured in the P 2 O 5 form, is between 3% and 4% by weight, with respect to the total weight of the catalyst, - the WO 3 /MoO 3 molar ratio is between 5.3 and 12.4 mol/mol, - the NiO/(WO 3 + MoO 3 ) molar ratio is between 0.20 and 0.33 mol/mol, - the P 2 O 5 /(WO 3 + MoO 3 ) molar ratio is between 0.21 and 0.34 mol/mol. - the content of nickel, measured in the NiO form, is between 3% and 4% by weight, with respect to the total weight of the catalyst, - the content of molybdenum, measured in the MoO 3 form, is between 2% and 4% by weight, with respect to the total weight of the catalyst, - the content of tungsten, measured in the WO 3 form, is between 34% and 40% by weight, with respect to the total weight of the catalyst, - the content of phosphorus, measured in the P 2 O 5 form, is between 3% and 4% by weight, with respect to the total weight of the catalyst, - the WO 3 /MoO 3 molar ratio is between 5.3 and 12.4 mol/mol, - the NiO/(WO 3 + MoO 3 ) molar ratio is between 0.20 and 0.33 mol/mol, - the P 2 O 5 /(WO 3 + MoO 3 ) molar ratio is between 0.21 and 0.34 mol/mol.
Layer system for thin-film solar cells , comprising: - an absorber layer , which includes a chalcogenide compound semiconductor, and - a buffer layer , which is arranged on the absorber layer and includes halogen-enriched Zn x In 1-x S y with 0.01 ≤ x ≤ 0,9 and 1 ≤ y ≤ 2, wherein the buffer layer consists of a first layer region (5.1) adjoining the absorber layer with a halogen mole fraction A 1 and a second layer region (5.2) adjoining the first layer region (5.1) with a halogen mole fraction A 2 and the ratio A 1 /A 2 is ≥ 2 and the layer thickness (d 1 ) of the first layer region (5.1) is ≤ 50 % of the layer thickness (d) of the buffer layer . - an absorber layer , which includes a chalcogenide compound semiconductor, and - a buffer layer , which is arranged on the absorber layer and includes halogen-enriched Zn x In 1-x S y with 0.01 ≤ x ≤ 0,9 and 1 ≤ y ≤ 2,
A communication method, wherein the method comprises: sending (S132), by a central unit, CU, of a radio access network device, a UE context setup request message to a distributed unit, DU, of the radio access network device, wherein the UE context setup request message is used to request the DU to establish a bearer for a terminal device, and the UE context setup request message comprises an identifier of the bearer and single network slice selection assistance information, S-NSSAI, wherein the S-NSSAI corresponds to the bearer; and selecting, by the DU, a network slice based on the S-NSSAI; configuring, by the DU, an L1/L2 parameter corresponding to the network slice; receiving (S133), by the central unit, a response message from the distributed unit; wherein the CU comprises a radio resource control, RRC, protocol stack function, a packet data convergence protocol, PDCP, protocol stack function, and a service data adaptation protocol, SDAP, protocol stack function, and the DU comprises a radio link control, RLC, protocol stack function, a media access control, MAC, protocol stack function, and a physical layer, PHY, protocol stack function. sending (S132), by a central unit, CU, of a radio access network device, a UE context setup request message to a distributed unit, DU, of the radio access network device, wherein the UE context setup request message is used to request the DU to establish a bearer for a terminal device, and the UE context setup request message comprises an identifier of the bearer and single network slice selection assistance information, S-NSSAI, wherein the S-NSSAI corresponds to the bearer; and selecting, by the DU, a network slice based on the S-NSSAI; configuring, by the DU, an L1/L2 parameter corresponding to the network slice; receiving (S133), by the central unit, a response message from the distributed unit; wherein the CU comprises a radio resource control, RRC, protocol stack function, a packet data convergence protocol, PDCP, protocol stack function, and a service data adaptation protocol, SDAP, protocol stack function, and the DU comprises a radio link control, RLC, protocol stack function, a media access control, MAC, protocol stack function, and a physical layer, PHY, protocol stack function.
Apparatus for drying and/or roasting beans for foodstuff, such as cocoa beans, or parts of beans, such as cocoa nibs, comprising a frame, a drum for receiving the beans or parts of beans rotatably mounted in the frame and at least partially closed at one end and open at the other , a shell enveloping the drum , a door for closing the open end of the drum , a heater for heating the drum , and a fan and a valve for maintaining an underpressure in the space between the drum and the shell , characterized by a seal located in the clearance between the drum and the shell in that the open end of the drum is provided with a riding ring and the seal is pressed onto the ring and in that the ring has a width, measured in the axial direction of the drum , that is larger than the width of the seal .
A method for cleaning a substrate having at least one surface having a residue to be removed thereon, the method comprising scanning at least an area of the surface having the residue thereon with laser light to thereby heat the surface and the residue controlling the heating so that a part of the residue first liquefies such that the liquefied part of the residue starts flowing towards the solid part of the residue, thereby forming a meniscus with the solid part of the residue and accumulating in part on top of the solid part, the thus generated thicker layer of residue absorbing further heat to be decomposed or vaporized; wherein the scanning of the laser light comprises moving the laser light back and forth in a first direction repeatedly with a first scanning speed, while moving the laser light in a second direction which is perpendicular to the first direction with a second scanning speed; characterized in that the first scanning speed is fast enough to form the meniscus at a scanned area of the surface, and faster than the second scanning speed, and wherein the second speed is slow enough for the meniscus to move forward in the second direction. scanning at least an area of the surface having the residue thereon with laser light to thereby heat the surface and the residue controlling the heating so that a part of the residue first liquefies such that the liquefied part of the residue starts flowing towards the solid part of the residue, thereby forming a meniscus with the solid part of the residue and accumulating in part on top of the solid part, the thus generated thicker layer of residue absorbing further heat to be decomposed or vaporized; wherein the scanning of the laser light comprises moving the laser light back and forth in a first direction repeatedly with a first scanning speed, while moving the laser light in a second direction which is perpendicular to the first direction with a second scanning speed; characterized in that the first scanning speed is fast enough to form the meniscus at a scanned area of the surface, and faster than the second scanning speed, and wherein the second speed is slow enough for the meniscus to move forward in the second direction.
A method for acquiring a charging electricity amount, the method being applied to a controller and the method comprising: acquiring (S11) electric meter information of an external electric meter in a charging process, wherein the electric meter information comprises operation state information; the method being characterized by further comprising: acquiring (S13), in a case of determining (S12) based on at least the operation state information that the external electric meter is in a fault state, a first amount of electricity outputted by a charging pile when the external electric meter is in the fault state, until the charging process ends or the external electric meter is in a normal operation state, wherein the first amount of electricity is calculated based on at least first electric energy output data of the charging pile, and the first electric energy output data is acquired by a charging module of the charging pile when the external electric meter is in the fault state. acquiring (S11) electric meter information of an external electric meter in a charging process, wherein the electric meter information comprises operation state information; the method being characterized by further comprising: acquiring (S13), in a case of determining (S12) based on at least the operation state information that the external electric meter is in a fault state, a first amount of electricity outputted by a charging pile when the external electric meter is in the fault state, until the charging process ends or the external electric meter is in a normal operation state, wherein the first amount of electricity is calculated based on at least first electric energy output data of the charging pile, and the first electric energy output data is acquired by a charging module of the charging pile when the external electric meter is in the fault state. acquiring (S13), in a case of determining (S12) based on at least the operation state information that the external electric meter is in a fault state, a first amount of electricity outputted by a charging pile when the external electric meter is in the fault state, until the charging process ends or the external electric meter is in a normal operation state, wherein the first amount of electricity is calculated based on at least first electric energy output data of the charging pile, and the first electric energy output data is acquired by a charging module of the charging pile when the external electric meter is in the fault state.
A current monitoring device , comprising: a sense impedance configured to receive a current to be monitored; an voltage divider , coupled to the sense impedance, and configured to convert the current to be monitored to a differential voltage to be monitored; a reference circuit configured to generate a differential reference voltage; a comparator coupled to the voltage divider and the reference circuit and configured to output a signal if the differential voltage to be monitored is different than the differential reference voltage; and wherein the reference circuit includes a comparator trimming circuit configured to vary the differential reference voltage to compensate for offset biases in the comparator. a sense impedance configured to receive a current to be monitored; an voltage divider , coupled to the sense impedance, and configured to convert the current to be monitored to a differential voltage to be monitored; a reference circuit configured to generate a differential reference voltage; a comparator coupled to the voltage divider and the reference circuit and configured to output a signal if the differential voltage to be monitored is different than the differential reference voltage; and wherein the reference circuit includes a comparator trimming circuit configured to vary the differential reference voltage to compensate for offset biases in the comparator.
A crosslinkable adhesive composition, characterized in that it comprises: - at least one polymer (A) comprising a hydrolyzable alkoxysilane group; - at least one tackifying resin (B); - at least one pyrogenic silica (C); - at least one crosslinking catalyst (D); and - a silsesquioxane resin (E). - at least one polymer (A) comprising a hydrolyzable alkoxysilane group; - at least one tackifying resin (B); - at least one pyrogenic silica (C); - at least one crosslinking catalyst (D); and - a silsesquioxane resin (E).
A manifold configured to selectively direct diluted chemical washing fluid to washing machines , the manifold comprising a fluid inlet for receiving the diluted chemical washing fluid, a plurality of fluid outlets for directing the chemical washing fluid to the washing machines, a conduit member , a first drive mechanism , a support member , a control module , in which said conduit member comprises a fluid path therethrough, in which said fluid inlet is fluidly connected to a first end of said fluid path, and characterized in that : said support member comprises a track and in which said conduit member comprises a delivery head that is mounted for movement on the track , and in which said first drive mechanism is configured to move said delivery head on said track to selectively associate a second end of said fluid path with one of said plurality of fluid outlets according to commands issued by said control module , in which said delivery head comprises a shuttle carriage mounted for movement on said track , a connector member and a second drive mechanism , in which said connector member comprises said fluid path therethrough and a probe portion with said second end of said fluid path at an outer end thereof, in which said connector member is mounted for movement on a guide provided at a front side of said shuttle carriage , in which said second drive mechanism is configured to move said connector member on said guide according to commands issued by said control module between a retracted position in which said delivery head is able to move freely on said track between said plurality of fluid outlets , and an advanced position in which said probe portion extends through one of said fluid outlets , wherein a fluid line extends from said fluid inlet to a first end of said fluid path .
A multilayer adsorbent bed for purifying a feed stream comprising CO 2 , at least one of N 2 , H 2 O, CH 4 and CO, and more than 50 mole% hydrogen comprising: a) a first adsorbent section of an activated carbon layer and occupying a volume fraction of 20 to 50% of the multilayer adsorbent bed, wherein the first adsorbent section is for adsorbing at least one of CO 2 and CH 4 ; b) a second adsorbent section of a layer of molecular sieve of the faujasite structure type with a Si/Al atomic ratio of from 1.5 to 8.0 and occupying a volume fraction of 10 to 25% of the multilayer adsorbent bed, wherein the second adsorbent section is for adsorbing CO 2 ; and c) a third adsorbent section of a layer of molecular sieve of the faujasite structure type with a Si/Al atomic ratio of from 1.0 to 1.5 and occupying a volume fraction of 30 to 60% of the multilayer adsorbent bed, wherein the third adsorbent section is for adsorbing at least one of CO and N 2 ; wherein the second adsorbent section is present between the first adsorbent section and the third adsorbent section. a) a first adsorbent section of an activated carbon layer and occupying a volume fraction of 20 to 50% of the multilayer adsorbent bed, wherein the first adsorbent section is for adsorbing at least one of CO 2 and CH 4 ; b) a second adsorbent section of a layer of molecular sieve of the faujasite structure type with a Si/Al atomic ratio of from 1.5 to 8.0 and occupying a volume fraction of 10 to 25% of the multilayer adsorbent bed, wherein the second adsorbent section is for adsorbing CO 2 ; and c) a third adsorbent section of a layer of molecular sieve of the faujasite structure type with a Si/Al atomic ratio of from 1.0 to 1.5 and occupying a volume fraction of 30 to 60% of the multilayer adsorbent bed, wherein the third adsorbent section is for adsorbing at least one of CO and N 2 ;
A filter element , comprising: a filter media pack including an outer surface , the outer surface extending between a first flow face and a second flow face ; and a polymeric coating applied to the outer surface of the filter media pack; characterised in that the polymeric coating is not a molded structure and has an average thickness of between 0.127mm and 2.540mm (0.005 and 0.100 in). a filter media pack including an outer surface , the outer surface extending between a first flow face and a second flow face ; and a polymeric coating applied to the outer surface of the filter media pack; characterised in that the polymeric coating is not a molded structure and has an average thickness of between 0.127mm and 2.540mm (0.005 and 0.100 in).
Acquisition apparatus, for use in a motor vehicle , for acquiring an image having a plurality of pixels with respectively assigned brightness information and assigned depth information, comprising a detector apparatus , a lighting apparatus and a control apparatus , wherein the control apparatus is designed to provide a modulation signal for controlling the detector apparatus and the lighting apparatus , and wherein the detector apparatus is designed to acquire the depth information depending on the modulation signal and a time-dependent illuminance of a region of the detector apparatus that is assigned to the respective pixel, wherein the lighting apparatus comprises at least one first and one second luminous element which illuminate different lighting regions from one another, wherein the position of the first and second luminous elements with respect to the detector apparatus is fixed and known, wherein the luminosities of the first and the second luminous element are jointly modulatable depending on the modulation signal , wherein the modulation amplitude of the modulation is predefined separately for the first and second luminous element depending on a first and second amplitude signal that can be provided by the control apparatus , wherein the control apparatus is designed to adapt the first and/or the second amplitude signal depending on the depth information of at least one pixel , wherein the control apparatus is designed to determine, for the at least one pixel depending on the depth information of the pixel , whether the latter is illuminated by the first and/or by the second luminous element .
A condenser microphone unit comprising: an electroacoustic transducer ; and a unit case accommodating the electroacoustic transducer , wherein the unit case comprises at least one protrusion , the at least one protrusion is disposed on an inner circumferential surface of the unit case and is formed by pressing an outer circumferential surface of the unit case , and the electroacoustic transducer is fixed inside the unit case with the at least one protrusion . an electroacoustic transducer ; and a unit case accommodating the electroacoustic transducer , wherein the unit case comprises at least one protrusion , the at least one protrusion is disposed on an inner circumferential surface of the unit case and is formed by pressing an outer circumferential surface of the unit case , and the electroacoustic transducer is fixed inside the unit case with the at least one protrusion .
A substrate processing apparatus comprising: a table configured to support a substrate (W) horizontally; a rotation mechanism configured to rotate the table in a horizontal plane; a treatment liquid supply unit configured to supply a treatment liquid to a surface of the rotating substrate; a solvent supply unit configured to supply a volatile solvent (A1) to the surface of the rotating substrate, which has been supplied with the treatment liquid; a heater configured to heat the rotating substrate such that a gas layer is formed on the surface of the substrate, which has been supplied with the volatile solvent, to make the volatile solvent into a liquid ball; and a controller configured to control the solvent supply unit to start supplying the volatile solvent to the substrate before completion of supply of the treatment liquid to the substrate by the treatment liquid supply unit, and control the heater to start heating the substrate after completion of or during supply of the volatile solvent to the substrate by the solvent supply unit. a table configured to support a substrate (W) horizontally; a rotation mechanism configured to rotate the table in a horizontal plane; a treatment liquid supply unit configured to supply a treatment liquid to a surface of the rotating substrate; a solvent supply unit configured to supply a volatile solvent (A1) to the surface of the rotating substrate, which has been supplied with the treatment liquid; a heater configured to heat the rotating substrate such that a gas layer is formed on the surface of the substrate, which has been supplied with the volatile solvent, to make the volatile solvent into a liquid ball; and a controller configured to control the solvent supply unit to start supplying the volatile solvent to the substrate before completion of supply of the treatment liquid to the substrate by the treatment liquid supply unit, and control the heater to start heating the substrate after completion of or during supply of the volatile solvent to the substrate by the solvent supply unit.
A control device comprising: a driving control unit configured to control driving of an arm unit that supports a medical instrument; a region setting unit configured to set at least one region from a plurality of regions in a peripheral image as an intrusion prohibited region in accordance with a region selection operation by a user, from a manual input device , to select the at least one region in the peripheral image via a graphical user interface, the peripheral image including the arm unit and the medical instrument and a plurality of objects, each region of the peripheral image including one of the plurality of objects and corresponding to a portion of a space, the intrusion prohibited region corresponding to a portion of the space for which the medical instrument or the arm unit is prohibited from intruding within a movable range of the arm unit; an intrusion determination unit configured to determine a presence or an absence of the medical instrument or the arm unit within a distance of the intrusion prohibited region that is less than or equal to a predetermined threshold value when the driving control unit controls driving of the arm unit in accordance with a non-contact operation by a user with respect to the arm unit; and an action instruction unit configured to cause an intrusion hindering action for hindering intrusion of the medical instrument or the arm unit into the intrusion prohibited region to be executed in accordance with a determination result of the intrusion determination unit. a driving control unit configured to control driving of an arm unit that supports a medical instrument; a region setting unit configured to set at least one region from a plurality of regions in a peripheral image as an intrusion prohibited region in accordance with a region selection operation by a user, from a manual input device , to select the at least one region in the peripheral image via a graphical user interface, the peripheral image including the arm unit and the medical instrument and a plurality of objects, each region of the peripheral image including one of the plurality of objects and corresponding to a portion of a space, the intrusion prohibited region corresponding to a portion of the space for which the medical instrument or the arm unit is prohibited from intruding within a movable range of the arm unit; an intrusion determination unit configured to determine a presence or an absence of the medical instrument or the arm unit within a distance of the intrusion prohibited region that is less than or equal to a predetermined threshold value when the driving control unit controls driving of the arm unit in accordance with a non-contact operation by a user with respect to the arm unit; and an action instruction unit configured to cause an intrusion hindering action for hindering intrusion of the medical instrument or the arm unit into the intrusion prohibited region to be executed in accordance with a determination result of the intrusion determination unit.