mhurhangee/ep-ind-claims huggingface dataset:
A rail system comprising: a track; a plurality of leveling members disposed below the track; and a plurality of adjustment mechanisms disposed between the track and the plurality of leveling members, each of the adjustment mechanisms coupled to the track and one of the leveling members, wherein the adjustment mechanisms are configured to adjust a distance between the track and the respective leveling member; characterized in that each of the plurality of adjustment mechanisms further includes a second adjustment mechanism having a first link coupled to the track and a second link coupled to both the first link and to the respective one of the plurality of leveling members. a track; a plurality of leveling members disposed below the track; and a plurality of adjustment mechanisms disposed between the track and the plurality of leveling members, each of the adjustment mechanisms coupled to the track and one of the leveling members, wherein the adjustment mechanisms are configured to adjust a distance between the track and the respective leveling member; characterized in that each of the plurality of adjustment mechanisms further includes a second adjustment mechanism having a first link coupled to the track and a second link coupled to both the first link and to the respective one of the plurality of leveling members.
One or more non-transitory computer-readable media storing computer-executable instructions that upon execution cause one or more processors to perform acts comprising: receiving, from a requesting entity device (102, 104, 106), a request for subscriber information of a subscriber of a telecommunications service provider, the request comprising a public Internet Protocol, IP, address of a user device associated with the subscriber; determining whether the requesting entity device is associated with an authorized partner based at least on one or more credentials associated with the requesting entity device; in response to determining that the requesting entity device is associated with the authorized partner, routing the request to at least one subscriber database of a plurality of subscriber databases of the telecommunications service provider to obtain the subscriber information using the public IP address of the user device; caching the obtained subscriber information in a data cache for repeated requests of the subscriber information, and deleting the subscriber information from the data cache when the requesting entity device is no longer associated with an authorized partner or the requesting entity device cannot be authorized; and transmitting the subscriber information of the subscriber to the requesting entity device. receiving, from a requesting entity device (102, 104, 106), a request for subscriber information of a subscriber of a telecommunications service provider, the request comprising a public Internet Protocol, IP, address of a user device associated with the subscriber; determining whether the requesting entity device is associated with an authorized partner based at least on one or more credentials associated with the requesting entity device; in response to determining that the requesting entity device is associated with the authorized partner, routing the request to at least one subscriber database of a plurality of subscriber databases of the telecommunications service provider to obtain the subscriber information using the public IP address of the user device; caching the obtained subscriber information in a data cache for repeated requests of the subscriber information, and deleting the subscriber information from the data cache when the requesting entity device is no longer associated with an authorized partner or the requesting entity device cannot be authorized; and transmitting the subscriber information of the subscriber to the requesting entity device.
Field device with a housing designed to accommodate an electronics unit, wherein the housing is designed in the shape of a pot and is made from a nonconductive material, characterized in that at least one cable entry with a thread is provided on the housing, wherein the cable entry is provided with a conductive coating in the area of the thread, and wherein the thread has at least one groove in at least one area extending in the axial direction in relation to the cable entry.
A grinding mechanism for a food waste disposer, comprising: a plurality of disks (121, 122) stacked to form a rotatable shredder plate wherein at least one of the disks (121, 122) has a plurality of radially outwardly extending teeth about its periphery. a plurality of disks (121, 122) stacked to form a rotatable shredder plate wherein at least one of the disks (121, 122) has a plurality of radially outwardly extending teeth about its periphery.
A power generating unit mounted to a source of rotational energy and arranged to supply hydraulic pressure and flow to at least one driven accessory, wherein the power generating unit comprises a housing removably mounted on the source of rotational energy, an input shaft adapted to be connected to the source of rotational energy, said input shaft comprises a first end provided with means for engaging the input shaft to a power output interface 10 on the source of rotational energy, characterised in that said input shaft comprises a second end connected to a hydraulic pump and means for selectively engaging the input shaft to the hydraulic pump, where the input shaft, the means for selectively engaging the input shaft, and the hydraulic pump are arranged as an integral power generating unit within said housing.
An optical device, comprising: a light-transmitting substrate having at least two major surfaces parallel to each other and edges; optical means for coupling light waves located in a field-of-view into said substrate by internal reflection, and at least one partially reflecting surface located in said substrate which is non-parallel to said major surfaces of the substrate, characterized in that at least one of said major surfaces is coated with an angular sensitive 1 dichroic coating having a low reflectance at low incident angles and a high reflectance at high incident angles 2. 1 Original claim 2 2 Original claim 4 a light-transmitting substrate having at least two major surfaces parallel to each other and edges; optical means for coupling light waves located in a field-of-view into said substrate by internal reflection, and at least one partially reflecting surface located in said substrate which is non-parallel to said major surfaces of the substrate, characterized in that at least one of said major surfaces is coated with an angular sensitive 1 dichroic coating having a low reflectance at low incident angles and a high reflectance at high incident angles 2. 1 Original claim 2 2 Original claim 4
Door for a household refrigeration appliance, with a vacuum insulation element, which has a covering which surrounds an evacuated cavity, which is filled at least partially with a supporting body, wherein the covering has at least one indentation (23, 25, 27), in which at least one functional component (24, 26) is arranged, wherein at least one indentation (23, 25, 27) is embodied on an outer face of the vacuum insulation element which faces a front piece of the door and the indentation (23, 25, 27) is covered entirely by the front piece, characterised in that the door is a fully vacuum door and that the front piece is a cover as an exterior plate and that the front piece is connected in a non-destructive detachable manner to the vacuum insulation element, in particular connected by way of magnetic force.
A method comprising: determining whether a first network device is a central access point of a communication network, wherein the central access point is coupled to a gateway of the communication network via a first communication interface and to a second network device via at least a second communication interface; in response to determining that the first network device is the central access point, determining an operating parameter for the first network device configured as the central access point; and in response to determining that the first network device is not the central access point, determining how to configure the first network device based, at least in part, on a communication link performance measurement at the first network device. determining whether a first network device is a central access point of a communication network, wherein the central access point is coupled to a gateway of the communication network via a first communication interface and to a second network device via at least a second communication interface; in response to determining that the first network device is the central access point, determining an operating parameter for the first network device configured as the central access point; and in response to determining that the first network device is not the central access point, determining how to configure the first network device based, at least in part, on a communication link performance measurement at the first network device.
Secure electronic chip (50; 70) comprising in a substrate a plurality of N- or P-type doped semiconductor wells (3, 33) and a circuit (57, 61; 73, 75) of detection of the well bias current, transistors (6, 12) being formed inside and on top of the wells, the detection circuit (57, 61) being: coupled to the wells; or coupled to bias contacts of portions of the substrate having transistors formed inside and on top thereof, the detection circuit (57, 61) being characterized in that it comprises a resistive element conducting the bias current, the detection circuit being adapted to detecting a voltage across the resistive element, the electronic chip comprising a power supply circuit (72, 74) adapted to supplying a potential for biasing said wells (3, 33), the detection circuit (73, 75) being adapted to detecting a variation of a potential regulating the bias potential, the power supply circuit (72, 74) comprises an operational amplifier having its output coupled to the gate of a first MOS transistor, and the detection circuit (73, 75) comprises a second MOS transistor forming a current mirror with the first MOS transistor, an input of the operational amplifier and the drain of first MOS transistors being coupled to said wells (3, 33), and the detection circuit being adapted to detecting a variation of the current in the second transistor. coupled to the wells; or coupled to bias contacts of portions of the substrate having transistors formed inside and on top thereof, the detection circuit (57, 61) being characterized in that it comprises a resistive element conducting the bias current, the detection circuit being adapted to detecting a voltage across the resistive element, the electronic chip comprising a power supply circuit (72, 74) adapted to supplying a potential for biasing said wells (3, 33), the detection circuit (73, 75) being adapted to detecting a variation of a potential regulating the bias potential, the power supply circuit (72, 74) comprises an operational amplifier having its output coupled to the gate of a first MOS transistor, and the detection circuit (73, 75) comprises a second MOS transistor forming a current mirror with the first MOS transistor, an input of the operational amplifier and the drain of first MOS transistors being coupled to said wells (3, 33), and the detection circuit being adapted to detecting a variation of the current in the second transistor.
Method for preparing coal for carbonization, comprising the steps of: - grinding coal, - mixing the grinding stock with a binder, wherein during the mixing of the grinding stock with the binder, agglomeration takes place and a heap containing the grinding stock mixed with the binder is generated, so that in the course of agglomeration, the binder formed as tar will retreat into the interior of agglomerate particles in such a way that these are not sticky and are pourable without forming lumps, wherein the grinding stock and the binder are mixed in such a ratio and for such a period of time that pourable agglomerate particles are formed without any outward adhesive action, - processing the heap into a coal cake by compacting the agglomerate particles, which become adhesive only under the compacting pressure, in a mold and consolidating it into a block, wherein tar, which occurs during a carbonization process, is used as the binder. - grinding coal, - mixing the grinding stock with a binder, wherein during the mixing of the grinding stock with the binder, agglomeration takes place and a heap containing the grinding stock mixed with the binder is generated, so that in the course of agglomeration, the binder formed as tar will retreat into the interior of agglomerate particles in such a way that these are not sticky and are pourable without forming lumps, wherein the grinding stock and the binder are mixed in such a ratio and for such a period of time that pourable agglomerate particles are formed without any outward adhesive action, - processing the heap into a coal cake by compacting the agglomerate particles, which become adhesive only under the compacting pressure, in a mold and consolidating it into a block, wherein tar, which occurs during a carbonization process, is used as the binder.
A method of transmitting data through a device-to-device, D2D, communication between user equipments, UEs, the method comprising: configuring a D2D resource pool for a plurality of UEs; generating, at a first UE, first D2D data, the first D2D data corresponding to a transport block, TB, unit; and transmitting, from the first UE to a second UE, the first D2D data through a subset of subframes in the D2D resource pool for the plurality of UEs, wherein the D2D resource pool for the plurality of UEs is a first set of subframes in a time period, wherein the time period comprises the first set of subframes and a second set of subframes, and wherein the subset of subframes in the D2D resource pool is determined based on a resource pattern for transmission, RPT, wherein the RPT defined in the D2D resource pool comprises a plurality of sub-RPTs, each of the sub-RPTs indicating different subframes in the D2D resource pool and having a same selection pattern for identifying at least two subframes in which the first UE transmits the first D2D data, wherein one of the sub-RPT indicates, for the transmission of the first D2D data, at least two subframes in a portion of the D2D resource pool among all subframes in the portion of the D2D resource pool, and wherein a different subset of subframes in the same D2D resource pool is assigned to the second UE and corresponds to a different RPT. configuring a D2D resource pool for a plurality of UEs; generating, at a first UE, first D2D data, the first D2D data corresponding to a transport block, TB, unit; and transmitting, from the first UE to a second UE, the first D2D data through a subset of subframes in the D2D resource pool for the plurality of UEs, wherein the D2D resource pool for the plurality of UEs is a first set of subframes in a time period, wherein the time period comprises the first set of subframes and a second set of subframes, and wherein the subset of subframes in the D2D resource pool is determined based on a resource pattern for transmission, RPT, wherein the RPT defined in the D2D resource pool comprises a plurality of sub-RPTs, each of the sub-RPTs indicating different subframes in the D2D resource pool and having a same selection pattern for identifying at least two subframes in which the first UE transmits the first D2D data, wherein one of the sub-RPT indicates, for the transmission of the first D2D data, at least two subframes in a portion of the D2D resource pool among all subframes in the portion of the D2D resource pool, and wherein a different subset of subframes in the same D2D resource pool is assigned to the second UE and corresponds to a different RPT.
A method for manufacturing a bonded wafer, comprising the steps of: ion-implanting of hydrogen or a noble gas into a wafer for an active layer at a predetermined depth via an insulating film that has been formed thereon to form an ion-implanted area in said active layer wafer; subsequently bonding said active layer wafer with a supporting wafer, having an insulating film formed thereon, together with their insulating films facing to each other to produce a bonded wafer; and heat treating said bonded wafer to form bubbles in said ion-implanted area and thereby induce a cleavage and separation of a part of said bonded wafer defined in said ion-implanted side for forming an active layer having a thickness of not more than 330nm, in which a thickness of said insulating film of said active layer wafer, tdox, satisfies the following formula: tdox < 1 / 9 × tsoi where tsoi = thickness of said active layer. ion-implanting of hydrogen or a noble gas into a wafer for an active layer at a predetermined depth via an insulating film that has been formed thereon to form an ion-implanted area in said active layer wafer; subsequently bonding said active layer wafer with a supporting wafer, having an insulating film formed thereon, together with their insulating films facing to each other to produce a bonded wafer; and heat treating said bonded wafer to form bubbles in said ion-implanted area and thereby induce a cleavage and separation of a part of said bonded wafer defined in said ion-implanted side for forming an active layer having a thickness of not more than 330nm, in which a thickness of said insulating film of said active layer wafer, tdox, satisfies the following formula: tdox < 1 / 9 × tsoi where tsoi = thickness of said active layer.
A stabilized initiator solution comprising: i. a chain-extended initiator defined by the Formula I where SOL is a divalent solubilizing component, x is an integer of 1 or more, Q is (a) an element selected form the group consisting of 0, S, N, P, and Si or (b) a multivalent organic group, and R 1, R 2, R 3, and R 4 are each independently a monovalent organic group, or where R 1 joins with R 2 to form a trivalent organic group, and/or R 3 joins with R 4 to form a trivalent organic group, or a chain-extended initiator defined by the Formula VI where each SOL is independently a divalent solubilizing component, x is an integer of 1 or more, and R 14, R 15, and R 16 are each independently a divalent organic group; and ii. an aliphatic solvent, cycloaliphatic solvent, or a mixture thereof. i. a chain-extended initiator defined by the Formula I where SOL is a divalent solubilizing component, x is an integer of 1 or more, Q is (a) an element selected form the group consisting of 0, S, N, P, and Si or (b) a multivalent organic group, and R 1, R 2, R 3, and R 4 are each independently a monovalent organic group, or where R 1 joins with R 2 to form a trivalent organic group, and/or R 3 joins with R 4 to form a trivalent organic group, or a chain-extended initiator defined by the Formula VI where each SOL is independently a divalent solubilizing component, x is an integer of 1 or more, and R 14, R 15, and R 16 are each independently a divalent organic group; and ii. an aliphatic solvent, cycloaliphatic solvent, or a mixture thereof.
An electrodialysis apparatus comprising: an electrodialysis stack, the electrodialysis stack comprising two end gaskets (111, 115), the two end gaskets each comprising an end gasket opening configured to receive an electrode solution that is flowed into and out of the apparatus; a pair of electrode grates, the electrodialysis stack substantially interposed between the pair of electrode grates; a pair of electrodes, the electrodialysis stack and the pair of electrode grates each substantially interposed between the pair of electrodes; and a housing configured to pressurize the electrodialysis stack at a stack pressure, the housing including a first axial support member and a second axial support member, wherein the first and second axial support members are connected together to form a cell chamber configured to receive the electrodialysis stack, the housing further comprising a first reinforcing member operatively connected to the first axial support member and a second reinforcing member operatively connected to the second axial support member such that the first and second axial support members are disposed between the first and second reinforcing members, the cell chamber including at least one pressurization port communicating with the cell chamber such that a portion of the electrode solution is transmittable into a region of the cell chamber outside the electrodialysis stack, wherein said region forms a pressure basket around the electrodialysis stack, and wherein said region is in fluid communication with the interior of the electrodialysis stack. an electrodialysis stack, the electrodialysis stack comprising two end gaskets (111, 115), the two end gaskets each comprising an end gasket opening configured to receive an electrode solution that is flowed into and out of the apparatus; a pair of electrode grates, the electrodialysis stack substantially interposed between the pair of electrode grates; a pair of electrodes, the electrodialysis stack and the pair of electrode grates each substantially interposed between the pair of electrodes; and a housing configured to pressurize the electrodialysis stack at a stack pressure, the housing including a first axial support member and a second axial support member, wherein the first and second axial support members are connected together to form a cell chamber configured to receive the electrodialysis stack, the housing further comprising a first reinforcing member operatively connected to the first axial support member and a second reinforcing member operatively connected to the second axial support member such that the first and second axial support members are disposed between the first and second reinforcing members, the cell chamber including at least one pressurization port communicating with the cell chamber such that a portion of the electrode solution is transmittable into a region of the cell chamber outside the electrodialysis stack, wherein said region forms a pressure basket around the electrodialysis stack, and wherein said region is in fluid communication with the interior of the electrodialysis stack.
A battery wiring module configured to be attached to a single cell group, in which a plurality of single cells having positive and negative electrode terminals are lined up, the battery wiring module comprising: a connecting member configured to connect adjacent ones of the electrode terminals; and a resin protector configured to hold the connecting member, wherein: the resin protector includes a first wire holding part and a second wire holding part that are respectively capable of holding two types of electric wire groups (W1, W2), and the second wire holding part is configured such that it can cover the first wire holding part, characterized in that the first wire holding part and the second wire holding part are integrally formed via a hinge. a connecting member configured to connect adjacent ones of the electrode terminals; and a resin protector configured to hold the connecting member, wherein: the resin protector includes a first wire holding part and a second wire holding part that are respectively capable of holding two types of electric wire groups (W1, W2), and the second wire holding part is configured such that it can cover the first wire holding part, characterized in that the first wire holding part and the second wire holding part are integrally formed via a hinge. the resin protector includes a first wire holding part and a second wire holding part that are respectively capable of holding two types of electric wire groups (W1, W2), and the second wire holding part is configured such that it can cover the first wire holding part, characterized in that the first wire holding part and the second wire holding part are integrally formed via a hinge.