mhurhangee/ep-ind-claims huggingface dataset:
A proximity switch comprising: a body tube having a first bore with an open end; a proximity switch assembly disposed inside the bore; characterised in further comprising: a plug having a body that fits inside the open end and locks against an annular wall of the bore, the body having a second bore there through; an electrical lead electrically coupled with the proximity switch assembly and extending through the second bore; a ferrule surrounding the electrical lead and disposed inside the second bore; and a jam nut coupled with the plug and urging the ferrule into sealing contact with the second bore and locking the electrical lead in a fixed position within the second bore. a body tube having a first bore with an open end; a proximity switch assembly disposed inside the bore; characterised in further comprising: a plug having a body that fits inside the open end and locks against an annular wall of the bore, the body having a second bore there through; an electrical lead electrically coupled with the proximity switch assembly and extending through the second bore; a ferrule surrounding the electrical lead and disposed inside the second bore; and a jam nut coupled with the plug and urging the ferrule into sealing contact with the second bore and locking the electrical lead in a fixed position within the second bore. a plug having a body that fits inside the open end and locks against an annular wall of the bore, the body having a second bore there through; an electrical lead electrically coupled with the proximity switch assembly and extending through the second bore; a ferrule surrounding the electrical lead and disposed inside the second bore; and a jam nut coupled with the plug and urging the ferrule into sealing contact with the second bore and locking the electrical lead in a fixed position within the second bore.
Rubber mixture comprising at least one nonpolar rubber selected from the group consisting of NR, SBR, BR, IR, SIBR, IIR, ENR, and EPDM, preferably NR, SBR, BR, IIR, and EPDM, particularly preferably NR, BR and SBR, at least one carbon black and at least one short-chain alkyl ester of glycerol according to formula: in which R1, R2, and R3 are mutually independently hydrogen or a straight-chain or branched C1-C4-alkyl moiety.
Capsule for preparing a beverage, comprising - a housing with an outlet, and a cavity for containing a powder, - an agitator, comprising a central shaft, and at least one blade attached to the central shaft, characterized by - an inner membrane between the cavity and the outlet, the at least one blade comprising at least one blade element for piercing and/or cutting the inner membrane. - a housing with an outlet, and a cavity for containing a powder, - an agitator, comprising a central shaft, and at least one blade attached to the central shaft, characterized by - an inner membrane between the cavity and the outlet, the at least one blade comprising at least one blade element for piercing and/or cutting the inner membrane.
Use of a system in a scanning operation, wherein the system comprises at least two scan bodies (10, 10') and at least one connecting portion, wherein each scan body (10, 10') is configured as a reference for a scanner in the mouth region, and comprises a fastening device for fastening to an implant, a body extending longitudinally, the body being preferably at least essentially cylindrical, and at least one projection extending at least essentially at right angles to the body, wherein the projection does not extend over the entire length of the body, especially is disposed below a scan body upper edge, and/or is narrower than the body and wherein the connecting portion is configured for connecting the two scan bodies (10, 10'), wherein a first receptacle for receiving a portion of a first scan body and a second receptacle for receiving a portion of a second scan body are provided on the connecting portion. a fastening device for fastening to an implant, a body extending longitudinally, the body being preferably at least essentially cylindrical, and at least one projection extending at least essentially at right angles to the body, wherein the projection does not extend over the entire length of the body, especially is disposed below a scan body upper edge, and/or is narrower than the body
A method to be executed within an enclave included within a trusted execution environment, TEE, of a host platform, said enclave comprising a special memory page or partition that can only be accessed and referenced via special TEE instructions, said enclave further comprising an input verification engine, IVE (260, 460), and a binary translation engine, BTE, the method comprising the following steps: Receiving a trusted first binary object; and Analyzing, by the IVE, the trusted first binary object to identify portions that perform input/output operations; tagging the identified portions to create a tagged trusted binary with tagged portions; and providing the tagged trusted binary to the BTE, characterized in that the BTE is operable for receiving the tagged trusted binary in a first format, and for translating the tagged trusted binary into a second binary object in a second format, the second format being a native binary format of the host platform and suitable for execution within the TEE, and wherein translating comprises reserving the tagged portions for execution within the enclave. Receiving a trusted first binary object; and Analyzing, by the IVE, the trusted first binary object to identify portions that perform input/output operations; tagging the identified portions to create a tagged trusted binary with tagged portions; and providing the tagged trusted binary to the BTE, characterized in that the BTE is operable for receiving the tagged trusted binary in a first format, and for translating the tagged trusted binary into a second binary object in a second format, the second format being a native binary format of the host platform and suitable for execution within the TEE, and wherein translating comprises reserving the tagged portions for execution within the enclave.
A method of transmitting downlink control information, DCI, in a wireless communication system in which a plurality of serving cells are aggregated, the method comprising: generating DCI for scheduling a frequency division duplex, FDD, cell using FDD frames, DCI_FDD, and DCI for scheduling a time division duplex, TDD, cell using TDD frames, DCI_TDD, and transmitting the DCI_FDD and the DCI TDD, wherein if the plurality of serving cells are all of a same type of cell, either FDD cells or TDD cells, a bit size of a HARQ process number field in the DCI_FDD and DCI_TDD depends on whether the plurality of serving cells are FDD cells or TDD cells, wherein if a FDD cell and a TDD cell are aggregated, the HARQ process number field in the DCI FDD and DCI_TDD have a same bit size, characterized in that the bit size of the HARQ process number field in the DCI_FDD and DCI_TDD is determined depending on whether a primary cell is an FDD cell or a TDD cell. generating DCI for scheduling a frequency division duplex, FDD, cell using FDD frames, DCI_FDD, and DCI for scheduling a time division duplex, TDD, cell using TDD frames, DCI_TDD, and transmitting the DCI_FDD and the DCI TDD, wherein if the plurality of serving cells are all of a same type of cell, either FDD cells or TDD cells, a bit size of a HARQ process number field in the DCI_FDD and DCI_TDD depends on whether the plurality of serving cells are FDD cells or TDD cells, wherein if a FDD cell and a TDD cell are aggregated, the HARQ process number field in the DCI FDD and DCI_TDD have a same bit size, characterized in that the bit size of the HARQ process number field in the DCI_FDD and DCI_TDD is determined depending on whether a primary cell is an FDD cell or a TDD cell.
A stretched and foamed plastic formed body forming, in at least a portion thereof, a foamed region which incorporates foamed cells therein at a density in a range of 10 5 to 10 8 cells/cm 3, wherein: said foamed cells have a flat shape with a maximum thickness of not more than 50 μ m and an average aspect ratio of not less than 4 as viewed in cross section of the formed body perpendicular to a direction in which the formed body is stretched to a maximum degree; a non-foamed plastic skin layer having no foamed cell distributed therein and having a thickness in a range of 1 to 20 μ m is formed on the outer surface of said foamed region; and said formed body is blended with a non-lustrous pigment as the coloring agent, and exhibits a metal color over the foamed region thereof, the non-lustrous pigment being used in an amount of 0.0005 to 5 parts by weight per 100 parts by weight of the plastic material forming the formed body. said foamed cells have a flat shape with a maximum thickness of not more than 50 μ m and an average aspect ratio of not less than 4 as viewed in cross section of the formed body perpendicular to a direction in which the formed body is stretched to a maximum degree; a non-foamed plastic skin layer having no foamed cell distributed therein and having a thickness in a range of 1 to 20 μ m is formed on the outer surface of said foamed region; and said formed body is blended with a non-lustrous pigment as the coloring agent, and exhibits a metal color over the foamed region thereof, the non-lustrous pigment being used in an amount of 0.0005 to 5 parts by weight per 100 parts by weight of the plastic material forming the formed body.
A one piece custom made dental device for holding multiple types of prosthesis comprising a mono block having a plurality of supracrestally integrated dental implants without any joint, wherein the one piece custom made dental device further comprises abutments, supracrestally connecting bars and pontics; the one piece custom made dental device wherein each implant of the plurality of dental implants comprises: a wide base (4.1); an inverted thread (4.2); a vertical thread (4.3); implant body portion (4.4), and, a crestal supporting thread (4.5). a wide base (4.1); an inverted thread (4.2); a vertical thread (4.3); implant body portion (4.4), and, a crestal supporting thread (4.5).
Printing system for printing a plurality of print jobs, the printing system comprising a receiving unit for receiving the plurality of print jobs, a control unit for controlling a scheduling process and a printing process of the plurality of print jobs, a print unit for printing the plurality of print jobs, a plurality of supply holders (112A-112D, 114A-144D) for holding supply material needed to print the plurality of print jobs, and a user interface unit for communication to the operator of scheduled supply operator actions for printing the plurality of print jobs, each of the scheduled supply operator actions linked to one of the plurality of supply holders (112A-112D, 114A-144D), wherein the control unit comprises an establishing unit for establishing time period of unattended printing of the printing system, and a determination unit for determining scheduled supply operator actions per holder needed to be done before the time period of unattended printing starts, the user interface unit is configured to display the established time period of unattended printing and the determined supply operator actions per holder, the establishing unit is configured to establish a start time of the period of unattended printing, and the user interface unit is configured to receive a user action at the user interface unit of entering a desired start time of the time period of unattended printing in an entry box at the user interface unit by a user.
Toothed belt drive with a toothed belt and at least two toothed pulleys (3, 4), wherein the toothed belt has at least one drive side provided with a toothed profile, the toothed belt wraps around the toothed pulleys (3, 4) over a partial area of their circumference and the teeth of the toothed belt meshingly engage in the tooth gaps of the toothed pulleys (3, 4), characterized in that at least one of the toothings on the belt or pulley is formed as a series of tooth pitches varying along the circumference, wherein - the individual tooth pitches are designed to vary by up to a maximum of 5% relative to the mean tooth pitch on the belt or pulley, and - the absolute deviation of a varied tooth pitch from the mean tooth pitch on the belt or pulley is limited by the backlash of the toothing, wherein the backlash results from the difference of the width (es) of the tooth gaps of the respective toothed pulley (3, 4) and the width ( e R) of the teeth of the toothed belt in the middle of the tooth height of the teeth of the toothed belt. - the individual tooth pitches are designed to vary by up to a maximum of 5% relative to the mean tooth pitch on the belt or pulley, and - the absolute deviation of a varied tooth pitch from the mean tooth pitch on the belt or pulley is limited by the backlash of the toothing,
An end-of-arm-tool (EOAT) mechanical interface for operatively coupling a gripper actuator 2. to a part-gripping device, the EOAT mechanical interface comprising: first and second EOAT-to-gripper interface bodies moveable relative to each other along a gripping axis, each of the first and second EOAT-to-gripper interface bodies being mountable to, respectively, first and second portions of the gripper actuator that is configured to actuate the first and second EOAT-to-gripper interface bodies along the gripping axis; a lateral restraint dovetail joint surface configured to contact and slide relative to a confronting lateral restraint dovetail joint surface of the part-gripping device in response to actuation of the first and second EOAT-to-gripper interface bodies, thereby pulling the part-gripping device inward toward the EOAT mechanical interface; and a matable alignment structure configured to limit a gripping axis distance that the gripper actuator opens when engaging the EOAT mechanical interface with the part-gripping device such that the lateral restraint dovetail joint surface becomes aligned for engagement with the confronting lateral restraint dovetail joint surface. first and second EOAT-to-gripper interface bodies moveable relative to each other along a gripping axis, each of the first and second EOAT-to-gripper interface bodies being mountable to, respectively, first and second portions of the gripper actuator that is configured to actuate the first and second EOAT-to-gripper interface bodies along the gripping axis; a lateral restraint dovetail joint surface configured to contact and slide relative to a confronting lateral restraint dovetail joint surface of the part-gripping device in response to actuation of the first and second EOAT-to-gripper interface bodies, thereby pulling the part-gripping device inward toward the EOAT mechanical interface; and a matable alignment structure configured to limit a gripping axis distance that the gripper actuator opens when engaging the EOAT mechanical interface with the part-gripping device such that the lateral restraint dovetail joint surface becomes aligned for engagement with the confronting lateral restraint dovetail joint surface.
Refrigeration device, in particular household refrigeration device, having a thermally insulated inner container which lines a storage space for refrigerated goods, at least one shelf for storing refrigerated goods, as well as retaining means provided on the inner container which interact with counter-retaining means of the shelf to hold the shelf in a refrigerated goods storage position, namely a retracted position of the shelf, in the inner container, wherein the retaining means has at least one upwardly facing bearing surface and at least one downwardly facing support surface and the counter-retaining means together with the shelf is mounted in an extendible manner between the bearing surface and the support surface, wherein the shelf is secured in its refrigerated goods storage position by a latching means against slipping out in the extension direction, wherein the latching means is designed to position the shelf in a form-fit manner and to secure it in a supported manner by force fit, characterised in that - the latching means has a lug projecting from the support surface and/or from the bearing surface of the retaining means in the direction of the counter-retaining means, wherein the counter-retaining means or the shelf has a latch spring with a latch projection which in the refrigerated goods storage position latches behind the projecting lug, and/or - the latching means has a projecting lug and/or indentation embodied on an inner side wall (4a, 4b) of the inner container between the support surface and the bearing surface of the retaining means, and on which a latch spring of the counter-retaining means or of the shelf latches in the refrigerated goods storage position. - the latching means has a lug projecting from the support surface and/or from the bearing surface of the retaining means in the direction of the counter-retaining means, wherein the counter-retaining means or the shelf has a latch spring with a latch projection which in the refrigerated goods storage position latches behind the projecting lug, and/or - the latching means has a projecting lug and/or indentation embodied on an inner side wall (4a, 4b) of the inner container between the support surface and the bearing surface of the retaining means, and on which a latch spring of the counter-retaining means or of the shelf latches in the refrigerated goods storage position.
A glass ceramic, the glass ceramic comprising: a lithium silicate crystallized component and a lithium aluminum silicate crystallized component; and a residual glass component, the residual glass component comprising an alkali aluminosilicate glass that includes at least one of sodium and potassium, wherein the glass ceramic has a composition located within an area defined by a ternary eutectic of β-spodumene-lithium disilicate-tridymite in the SiO 2 -Al 2 O 3 -Li 2 O system and a binary eutectic of orthoclase-tridymite in the SiO 2 -Al 2 O 3 -K 2 O system, and wherein the ternary eutectic and binary eutectic occur at temperatures of less than 1000°C. a lithium silicate crystallized component and a lithium aluminum silicate crystallized component; and a residual glass component, the residual glass component comprising an alkali aluminosilicate glass that includes at least one of sodium and potassium, wherein the glass ceramic has a composition located within an area defined by a ternary eutectic of β-spodumene-lithium disilicate-tridymite in the SiO 2 -Al 2 O 3 -Li 2 O system and a binary eutectic of orthoclase-tridymite in the SiO 2 -Al 2 O 3 -K 2 O system, and wherein the ternary eutectic and binary eutectic occur at temperatures of less than 1000°C.
An antibody or antigen-binding fragment thereof for use in treating breast cancer, prostate cancer, ovarian cancer, stomach cancer, renal cancer, pancreatic cancer, colorectal cancer, skin cancer, lung cancer, cervical cancer, bladder cancer, glioma, mesothelioma, leukemia, or a sarcoma in a patient in need thereof, wherein the antibody comprises a heavy chain variable domain (V H) comprising SEQ ID NO: 1 with a substitution selected from the group consisting of S30A, S30H, S30W, E74A, E74C, E74D, E74F, E74G, E74H, E74L, E74P, E74Q, E74R, E74S, E74T, E74W, and E74Y; and a light chain variable domain (V L) comprising SEQ ID NO:2; and wherein the antibody or antigen-binding fragment thereof is capable of binding human transforming growth factor β1, β2, and β3.
A loudspeaker cone (122; 1300) comprising: a thermoplastic base material having a viscosity to shear rate ratio of greater than 3; and a predetermined weight percentage of a filler distributed in the thermoplastic base material, wherein the filler comprises features distributed in the thermoplastic base material that are less than 10 -9 meters in at least one dimension to enhance a stiffness characteristic of the thermoplastic base material; and where the filler comprises a phyllosilicate nanomaterial and the predetermined weight percentage is between 4 weight percent and 16 weight percent and the remainder of the thermoplastic base material is polypropylene. a thermoplastic base material having a viscosity to shear rate ratio of greater than 3; and a predetermined weight percentage of a filler distributed in the thermoplastic base material, wherein the filler comprises features distributed in the thermoplastic base material that are less than 10 -9 meters in at least one dimension to enhance a stiffness characteristic of the thermoplastic base material; and where the filler comprises a phyllosilicate nanomaterial and the predetermined weight percentage is between 4 weight percent and 16 weight percent and the remainder of the thermoplastic base material is polypropylene.
A positron emission tomography detection method, comprising: obtaining PET data from a PET detector, wherein the PET detector comprises an array of detector elements, and wherein the PET data is representative of a PET measurement of at least part of a subject; and identifying in the PET data a plurality of paired events, wherein each paired event comprises a first photon event in a first region of the PET detector and a second photon event in a second region of the PET detector, wherein the first photon event comprises an energy deposition in a first detector element of the array due to a scattering of a first photon at a first azimuthal scattering angle and an associated energy deposition by the scattered first photon in a second detector element of the array, and wherein the second photon event comprises an energy deposition in a third detector element of the array due to a scattering of a second photon at a second azimuthal scattering angle and an associated energy deposition by the scattered second photon in a fourth detector element of the array; characterised in that the method further comprises: determining relative azimuthal scattering angles for the paired events by determining a respective difference between the first azimuthal scattering angle and second azimuthal scattering angle for each of the paired events; and processing the PET data in dependence on the relative azimuthal scattering angles for the paired events. obtaining PET data from a PET detector, wherein the PET detector comprises an array of detector elements, and wherein the PET data is representative of a PET measurement of at least part of a subject; and identifying in the PET data a plurality of paired events, wherein each paired event comprises a first photon event in a first region of the PET detector and a second photon event in a second region of the PET detector, wherein the first photon event comprises an energy deposition in a first detector element of the array due to a scattering of a first photon at a first azimuthal scattering angle and an associated energy deposition by the scattered first photon in a second detector element of the array, and wherein the second photon event comprises an energy deposition in a third detector element of the array due to a scattering of a second photon at a second azimuthal scattering angle and an associated energy deposition by the scattered second photon in a fourth detector element of the array; characterised in that the method further comprises: determining relative azimuthal scattering angles for the paired events by determining a respective difference between the first azimuthal scattering angle and second azimuthal scattering angle for each of the paired events; and processing the PET data in dependence on the relative azimuthal scattering angles for the paired events. determining relative azimuthal scattering angles for the paired events by determining a respective difference between the first azimuthal scattering angle and second azimuthal scattering angle for each of the paired events; and processing the PET data in dependence on the relative azimuthal scattering angles for the paired events.