mhurhangee/patent-ind-claim-en huggingface dataset:
Household refrigeration appliance with an interior space which is embodied to receive food and is bounded by walls (4 to 8) of an inner container , wherein holding devices for at least one shelf are embodied on vertical walls , wherein at least one of the holding devices has a rail-like receiving element for a shelf arranged on the interior space side, said receiving element having at least one guide area (22, 23; 22', 23') for receiving the shelf , wherein the guide area (22, 23; 22', 23') is embodied on a base plate of the receiving element and a two-dimensional light emission area is embodied on a surface area of the base plate which is adjacent to the guide area (22, 23; 22', 23'), characterised in that the receiving element has a top first guide area (22; 22') and a bottom second guide area (23; 23') which is distanced in the vertical direction therefrom, and the light emission area is embodied in the surface area of the base plate which is embodied therebetween.
A method of manufacturing a microwave antenna module , comprising the following sequential steps: creating a laminate structure by laminating a plurality of conductive layers , wherein the plurality of conductive layers includes ground plane metal layers , and dielectric layers , said structure comprising a first strip line and a second strip line and a double sided structure interposed between said first and second strip lines ; creating a plurality of vias within the laminate structure to interconnect the plurality of conductive layers and dielectric layers ; creating a plurality of cutouts , the cutouts extending from a first side of the laminate structure to a second side of the laminate structure ; plating the cutouts from the top side to the bottom side such as to connect the ground plane metal layers to each other; laminating a base plate to a first side of the laminate structure ; wherein the baseplate operates as a heat sink; attaching a plurality of standoffs to the baseplate in respective ones of the plurality of cutouts ; attaching application specific integrated circuits (ASICs, 106) and monolithic microwave integrated circuits (MMICs, 112) to the standoffs ; wirebonding the ASICs and MMICs to an outer conductive layer of the plurality of conductive layers positioned at the first side of the laminate structure ; and laminating a seal ring to a periphery of a second side of the laminate structure . creating a laminate structure by laminating a plurality of conductive layers , wherein the plurality of conductive layers includes ground plane metal layers , and dielectric layers , said structure comprising a first strip line and a second strip line and a double sided structure interposed between said first and second strip lines ; creating a plurality of vias within the laminate structure to interconnect the plurality of conductive layers and dielectric layers ; creating a plurality of cutouts , the cutouts extending from a first side of the laminate structure to a second side of the laminate structure ; plating the cutouts from the top side to the bottom side such as to connect the ground plane metal layers to each other; laminating a base plate to a first side of the laminate structure ; wherein the baseplate operates as a heat sink; attaching a plurality of standoffs to the baseplate in respective ones of the plurality of cutouts ; attaching application specific integrated circuits (ASICs, 106) and monolithic microwave integrated circuits (MMICs, 112) to the standoffs ; wirebonding the ASICs and MMICs to an outer conductive layer of the plurality of conductive layers positioned at the first side of the laminate structure ; and laminating a seal ring to a periphery of a second side of the laminate structure .
A method comprising: introducing a gas comprising a nitrogen center into a spray chamber positioned upstream of an inductively coupled plasma sustained in a torch , and fluidically coupled to a sample inlet of the torch, wherein the gas comprising the nitrogen center comprises a molecule or compound comprising at least one nitrogen atom chemically bonded to another atom; wherein the torch is configured to sustain the inductively coupled plasma using a plasma gas introduced into the torch, and wherein elements in a sample introduced into the sustained inductively coupled plasma are ionized by the sustained inductively coupled plasma; the method characterised by selectively switching off the introduction of the gas comprising the nitrogen center into the spray chamber when a hard-to-ionize element is being analyzed using the inductively coupled plasma, wherein the hard-to-ionize element comprises beryllium, zinc, selenium, or arsenic; and selectively switching on the introduction of the gas comprising the nitrogen center into the spray chamber when an element other than a hard-to-ionize element is being analyzed using the inductively coupled plasma. introducing a gas comprising a nitrogen center into a spray chamber positioned upstream of an inductively coupled plasma sustained in a torch , and fluidically coupled to a sample inlet of the torch, wherein the gas comprising the nitrogen center comprises a molecule or compound comprising at least one nitrogen atom chemically bonded to another atom; wherein the torch is configured to sustain the inductively coupled plasma using a plasma gas introduced into the torch, and wherein elements in a sample introduced into the sustained inductively coupled plasma are ionized by the sustained inductively coupled plasma; the method characterised by selectively switching off the introduction of the gas comprising the nitrogen center into the spray chamber when a hard-to-ionize element is being analyzed using the inductively coupled plasma, wherein the hard-to-ionize element comprises beryllium, zinc, selenium, or arsenic; and selectively switching on the introduction of the gas comprising the nitrogen center into the spray chamber when an element other than a hard-to-ionize element is being analyzed using the inductively coupled plasma.
A field device management system comprising: a plurality of field devices equipped in a plant ; one or more host devices equipped at a place distant from the plant and configured to connect to the field devices via a first network ; characterized by a terminal apparatus configured to connect to the field devices via a second network and to connect to the host devices via a third network , the field devices being configured to communicate with the terminal apparatus via the second network , and the host devices being configured to communicate with the terminal apparatus via the third network , wherein the terminal apparatus comprises: a first communication interface module configured to perform field communication with the field devices via the second network , a second communication interface module configured to perform near field communication with the host devices via the third network , and a controller that, when updating data of any one of the field devices , is configured to perform communication with the host devices through the second communication interface module , to receive update permission information from the host device through the second communication interface module and to perform data update of the field device through the first communication interface module . a plurality of field devices equipped in a plant ; one or more host devices equipped at a place distant from the plant and configured to connect to the field devices via a first network ; characterized by a terminal apparatus configured to connect to the field devices via a second network and to connect to the host devices via a third network , the field devices being configured to communicate with the terminal apparatus via the second network , and the host devices being configured to communicate with the terminal apparatus via the third network , a first communication interface module configured to perform field communication with the field devices via the second network , a second communication interface module configured to perform near field communication with the host devices via the third network , and a controller that, when updating data of any one of the field devices , is configured to perform communication with the host devices through the second communication interface module , to receive update permission information from the host device through the second communication interface module and to perform data update of the field device through the first communication interface module .
The use of a composition comprising a binary azeotrope-like mixture consisting essentially of 1-chloro-3,3,3-trifluoropropene and a C1 - C3 alcohol selected from the group consisting of methanol, ethanol and isopropanol as a solvent for cleaning a soil from a substrate wherein said 1-chloro-3,3,3-trifluoropropene is trans 1-chloro-3,3,3-trifluoropropene or cis 1-chloro-3,3,3-trifluoropropene.
A climbing shoe comprising: a shoe-upper shaped to accommodate and cover substantially the whole user's foot; a polymeric-material sole fixed to the bottom of the shoe-upper so as to cover the front part of the bottom of said shoe-upper ; and a sagittal tensioning band made of elastomeric material, which connects the toe of the shoe-upper directly to the rear part of the shoe-upper , in the area above the Calcaneus of the user's foot, passing underneath the sole ; the climbing shoe being characterised in that the sagittal tensioning band is substantially Y-shaped, extends longitudinally along the tarsus-phalangeal portion of the bottom of the shoe-upper while remaining underneath the sole , and then forks into two branches that extend obliquely along the lateral sides of the shoe-upper , up to reach the rear part of the shoe-upper .
A system, comprising: multiple sippers including a nozzle sipper and multiple reagent sippers , the reagent sippers extending into different corresponding reagent reservoirs containing different reagents therein such that respective distal tips of the reagent sippers contact the reagents in the reagent reservoirs, the nozzle sipper extending into a mixing reservoir ; a cache channel extending between a pump end and a reservoir end, the pump end of the cache channel operatively connected to a pump , the reservoir end of the cache channel fluidly connected to the sippers through a reagent selector valve and corresponding fluid channels and wherein the cache channel includes an alternating pattern of the designated amounts of the different reagents along a length of the cache channel in response to aspirating the reagents into the cache channel; and a control circuitry operatively connected to the pump and the reagent selector valve , the control circuitry implementing a mixing protocol by controlling the pump and the reagent selector valve to automatically aspirate the reagents through the corresponding reagent sippers one at a time in an ordered sequence into the cache channel at designated amounts of the corresponding reagents based on the mixing protocol, the control circuitry subsequently controlling the pump and the reagent selector valve to discharge the reagents from the cache channel through the nozzle sipper into the mixing reservoir and mix the reagents within the mixing reservoir to form a reagent mixture. multiple sippers including a nozzle sipper and multiple reagent sippers , the reagent sippers extending into different corresponding reagent reservoirs containing different reagents therein such that respective distal tips of the reagent sippers contact the reagents in the reagent reservoirs, the nozzle sipper extending into a mixing reservoir ; a cache channel extending between a pump end and a reservoir end, the pump end of the cache channel operatively connected to a pump , the reservoir end of the cache channel fluidly connected to the sippers through a reagent selector valve and corresponding fluid channels and wherein the cache channel includes an alternating pattern of the designated amounts of the different reagents along a length of the cache channel in response to aspirating the reagents into the cache channel; and a control circuitry operatively connected to the pump and the reagent selector valve , the control circuitry implementing a mixing protocol by controlling the pump and the reagent selector valve to automatically aspirate the reagents through the corresponding reagent sippers one at a time in an ordered sequence into the cache channel at designated amounts of the corresponding reagents based on the mixing protocol, the control circuitry subsequently controlling the pump and the reagent selector valve to discharge the reagents from the cache channel through the nozzle sipper into the mixing reservoir and mix the reagents within the mixing reservoir to form a reagent mixture.
An industrial vehicle including a control lever device comprising: a control lever that is tiltable forward and rearward relative to a vehicle body of the industrial vehicle and that includes a control knob having a knob body , a switch button that is provided on the control knob and adapted to be pushable while the control lever is operated, wherein the switch button has a movement axis (Q) indicating a movable direction of the switch button , wherein the movement axis is inclined forward relative to a direction orthogonal to an extending direction of the control knob so that a pushing direction of the switch button is directed rearward from the direction orthogonal to the extending direction of the control knob , characterized in that the control knob includes a raised portion formed to rise from the knob body , the raised portion of the knob body is formed at an intermediate position of the knob body or at a position near a rear end of the knob body in a longitudinal direction thereof so as to protrude obliquely frontward and upward, the raised portion has a circular end face portion facing obliquely frontward and upward, and the switch button is provided in the center of the end face portion . a control lever that is tiltable forward and rearward relative to a vehicle body of the industrial vehicle and that includes a control knob having a knob body , a switch button that is provided on the control knob and adapted to be pushable while the control lever is operated, wherein the switch button has a movement axis (Q) indicating a movable direction of the switch button , wherein the movement axis is inclined forward relative to a direction orthogonal to an extending direction of the control knob so that a pushing direction of the switch button is directed rearward from the direction orthogonal to the extending direction of the control knob , characterized in that the control knob includes a raised portion formed to rise from the knob body , the raised portion of the knob body is formed at an intermediate position of the knob body or at a position near a rear end of the knob body in a longitudinal direction thereof so as to protrude obliquely frontward and upward, the raised portion has a circular end face portion facing obliquely frontward and upward, and the switch button is provided in the center of the end face portion .
A device (VM) for compacting a sliver (V) on a spinning machine, • having a carrier with a receptacle for a bolt , • having a rotatably supported suction drum with a closed and an open end-face side , and a bearing element (K), situated in the area of the closed end-face side , via which the suction drum is rotatably supported on an end section of the bolt , • wherein the bolt protrudes from the open end-face side of the suction drum , • wherein the suction drum , viewed in its axial direction, is axially fixed to the bolt via the bearing element (K) so that the suction drum and the bolt form a separate unit of the device (VM), and • at least one fastening means is provided via which the bolt is detachably fastened in the receptacle . • having a carrier with a receptacle for a bolt , • having a rotatably supported suction drum with a closed and an open end-face side , and a bearing element (K), situated in the area of the closed end-face side , via which the suction drum is rotatably supported on an end section of the bolt , • wherein the bolt protrudes from the open end-face side of the suction drum , • wherein the suction drum , viewed in its axial direction, is axially fixed to the bolt via the bearing element (K) so that the suction drum and the bolt form a separate unit of the device (VM), and • at least one fastening means is provided via which the bolt is detachably fastened in the receptacle .
A spring member used for a fuel cell stack in which are stacked a plurality of fuel cell units, each of the fuel cell units having a power generation cell formed by sandwiching an electrolyte from both sides with a pair of electrodes and that generates power by using supplied gas, and a separator that defines a flow path portion, which is a flow passage for the gas between the separator and the power generation cell, and that is in conductive contact with the power generation cell, comprising: a planar portion joined to the separator in a state of surface contact with the separator ; and a spring portion extending from the planar portion to generate an elastic force that presses the separator toward the power generation cell by receiving a force in a stacking direction of the cell and undergoing bending deformation, characterized in that the spring member further comprises a pillar portion extending from the spring portion in a direction away from the planar portion along a direction intersecting the planar portion , the pillar portion extends along the stacking direction (Z), an auxiliary pillar portion extending from the spring portion in a direction toward the planar portion along the stacking direction, and the spring portion has a curved portion curved in the stacking direction. a planar portion joined to the separator in a state of surface contact with the separator ; and a spring portion extending from the planar portion to generate an elastic force that presses the separator toward the power generation cell by receiving a force in a stacking direction of the cell and undergoing bending deformation, characterized in that the spring member further comprises a pillar portion extending from the spring portion in a direction away from the planar portion along a direction intersecting the planar portion , the pillar portion extends along the stacking direction (Z), an auxiliary pillar portion extending from the spring portion in a direction toward the planar portion along the stacking direction, and the spring portion has a curved portion curved in the stacking direction.
A baler including a plurality of pressing elements for pressing a mass of bale material in a bale chamber to form a round bale, and a binding apparatus for binding the bale in the bale chamber with at least one strip of film material , wherein at least one blocking element is provided between an adjacent pair of pressing elements to block the passage of a lead-in end of the film material between the pair of pressing elements; wherein each blocking element has a width that is less than the width of the bale chamber and, if the baler includes a plurality of blocking elements, the blocking elements have a combined width that is less than the width of the bale chamber; characterised in that the binding apparatus includes a bundling means for bundling the lead-in end of the film material to form a rope-like element having a width less than the full width of the film material, wherein the number of blocking elements depends on the number of strips of film material fed into the bale chamber , wherein each blocking element is positioned to block the passage of a lead-in end of the film material between the pair of pressing elements. wherein each blocking element has a width that is less than the width of the bale chamber and, if the baler includes a plurality of blocking elements, the blocking elements have a combined width that is less than the width of the bale chamber; characterised in that the binding apparatus includes a bundling means for bundling the lead-in end of the film material to form a rope-like element having a width less than the full width of the film material, wherein the number of blocking elements depends on the number of strips of film material fed into the bale chamber , wherein each blocking element is positioned to block the passage of a lead-in end of the film material between the pair of pressing elements.
Joint (J1; J2) for a cable ducting including a first plate element adapted to be operatively coupled to an end portion of a first cable duct and a second plate element adapted to be operatively coupled to an end portion of a second cable duct facing said first duct along a predetermined ducting direction, wherein said first plate element and said second plate element are rotatably coupled to each other on parallel planes, wherein said first plate element comprises a through hole and said second plate element comprises an integral raised formation , protruding from a face of said second plate element in a direction orthogonal to said face , said raised formation being disposed through said through hole so as to emerge with a free end from the opposite side and to determine an axis of mutual rotation of said plate elements , said free end having a flange extending radially at least partially overlapping to an edge of said through hole so as to retain said second plate element transversely with respect to said first plate element in a condition firmly coupled thereto, characterized in that said through hole is a circular hole forming a rotation hinge and said integral raised formation comprises a joining hole with protruding edge having a radial extension smaller than the radial extension of said through hole and an edge at least partially protruding in said direction orthogonal to the face of the second plate element , said at least partially protruding edge being at least partially folded to form said flange so as to hold the second plate element adjacent to the first plate element .
A safety syringe comprising: a barrel having an opening at an end thereof; a syringe plunger configured to move within the barrel to cause a substance within the barrel to be expelled from the opening; a safety plunger coupled to the syringe plunger such that an inward stroke of the safety plunger causes the syringe plunger to move within the barrel ; and a sheath configured to cover at least partially the opening in the barrel after use of the syringe , wherein the safety plunger is decoupled from the sheath and is configured to couple to the sheath at a first point on the inward stroke such that the safety plunger and the sheath move together on the inward stroke, and to decouple from the syringe plunger at a second point on the inward stroke such that the safety plunger is moveable independently of the syringe plunger , and wherein further inward movement of the safety plunger after the first and second points on the inward stroke causes the sheath at least partially to cover the opening in the barrel . a barrel having an opening at an end thereof; a syringe plunger configured to move within the barrel to cause a substance within the barrel to be expelled from the opening; a safety plunger coupled to the syringe plunger such that an inward stroke of the safety plunger causes the syringe plunger to move within the barrel ; and a sheath configured to cover at least partially the opening in the barrel after use of the syringe , wherein the safety plunger is decoupled from the sheath and is configured to couple to the sheath at a first point on the inward stroke such that the safety plunger and the sheath move together on the inward stroke, and to decouple from the syringe plunger at a second point on the inward stroke such that the safety plunger is moveable independently of the syringe plunger , and wherein further inward movement of the safety plunger after the first and second points on the inward stroke causes the sheath at least partially to cover the opening in the barrel .