mhurhangee/ep-ind-claims huggingface dataset:
A pipe clip (10, 50, 70, 90) for securing a pipe to a supporting member, the pipe clip comprising a pipe receiving portion and a body portion and at least one aperture for receiving fixing means, the pipe receiving portion and body portion having a common substantially longitudinal central axis, the aperture being provided through the body portion in a plane substantially perpendicular to the common substantially longitudinal central axis of the body portion and pipe receiving portion, such that, in use, the longitudinal axis of the fixing means is located in a plane substantially perpendicular to the substantially longitudinal central axis of the body portion, for enabling the body portion to be fastened to the side of the supporting member, wherein the pipe receiving portion includes a pair of curved resilient arms (26, 28), free ends of the resilient arms (26, 28) being spaced from the body portion, spaced apart and adapted to flex radially outwards for receiving the pipe when it is pushed into the opening between the free ends of the arms (26, 28), the pipe receiving portion and the body portion are aligned about the longitudinal axis, and the body portion is formed with a stepped rear face, including first and second faces substantially perpendicular to one another defining an internal corner for placing contiguous to an external corner of the supporting member.
A photovoltaic module, comprising: a PV laminate (106, 206, 306, 406, 506, 606) having a plurality of solar cells (108, 208, 608) encapsulated between a front side (102, 202, 602) and a back side (104, 204), wherein the back side includes a plurality of edges joined at a corner (212, 312, 412, 712); and an electronic component (120, 220, 320, 420, 620, 720) coupled to the back side of the PV laminate, characterized in that the electronic component is to condition power generated by the plurality of solar cells, and wherein the electronic component includes a DC connector port electrically coupled to the plurality of solar cells, and a conditioned power connector port (124, 224, 324, 324', 424, 424', 524, 624, 724) having a port face facing the corner. a PV laminate (106, 206, 306, 406, 506, 606) having a plurality of solar cells (108, 208, 608) encapsulated between a front side (102, 202, 602) and a back side (104, 204), wherein the back side includes a plurality of edges joined at a corner (212, 312, 412, 712); and an electronic component (120, 220, 320, 420, 620, 720) coupled to the back side of the PV laminate, characterized in that the electronic component is to condition power generated by the plurality of solar cells, and wherein the electronic component includes a DC connector port electrically coupled to the plurality of solar cells, and a conditioned power connector port (124, 224, 324, 324', 424, 424', 524, 624, 724) having a port face facing the corner.
A system comprising - a device for washing, disinfecting and/or sterilizing medical, dental, laboratory and/or pharmaceutical goods, and - a parameter determining unit (13, 23) adapted to determine a value indicative of a parameter of a medium dedicated to the device before being supplied to the device, wherein the parameter is representative of a quality aspect of the medium, said parameter being taken from the list of temperature, pH, conductivity, density, pressure, and wherein the medium supplied to the device is used for a process performed in the device, said medium being a liquid, a gas or an aerosol, the system further comprising a medium input unit (11, 21) adapted to receive the medium, which medium input unit (11, 21) enables feeding of the medium into the system, and which medium input unit (11, 21) is connected to the parameter determining unit (13, 23) by a conduit, wherein the parameter determining unit (13, 23) is located upstream of the device, such that it determines the parameter of the incoming medium, before it reaches the device and such that only the quantity of the medium which is intended to be supplied to the device is monitored by the parameter determining unit (13, 23). - a device for washing, disinfecting and/or sterilizing medical, dental, laboratory and/or pharmaceutical goods, and - a parameter determining unit (13, 23) adapted to determine a value indicative of a parameter of a medium dedicated to the device before being supplied to the device, wherein the parameter is representative of a quality aspect of the medium, said parameter being taken from the list of temperature, pH, conductivity, density, pressure, and wherein the medium supplied to the device is used for a process performed in the device, said medium being a liquid, a gas or an aerosol, the system further comprising a medium input unit (11, 21) adapted to receive the medium, which medium input unit (11, 21) enables feeding of the medium into the system, and which medium input unit (11, 21) is connected to the parameter determining unit (13, 23) by a conduit, wherein the parameter determining unit (13, 23) is located upstream of the device, such that it determines the parameter of the incoming medium, before it reaches the device and such that only the quantity of the medium which is intended to be supplied to the device is monitored by the parameter determining unit (13, 23).
A laminating machine, wherein the laminating machine has at least one material source for material to be laminated, and wherein the laminating machine has at least one laminating unit, and wherein the laminating machine has at least one lamination source (320; 330) for at least one web-type laminating material (321; 331), and wherein the axial direction is oriented orthogonally to every transport direction of the material web, characterized in that at least two different webbing-up means (342; 343), each of which is movable along at least one respective webbing-up path (344; 346) for webbing up different laminating materials (321; 331), are and/or can be arranged at least intermittently at least within the laminating unit, and in that a first webbing-up path associated with a first webbing-up means is associated with a first lamination source and a second webbing-up path associated with a second webbing-up means is associated with a second lamination source, and in that the first webbing-up path and the second webbing-up path are associated with the same laminating unit, and in that at least parts of the respective at least one webbing-up path (344; 346) are spaced by a distance of at least 1 cm with respect to an axial direction from every component of a transport path provided for the at least one laminating material (321; 331) within the laminating unit, and in that the respective webbing-up paths (344; 346) of the at least two different webbing-up means (342; 343) are arranged spaced from one another in the axial direction.
Heat exchanger configured to transfer heat from at least one calorigenic fluid, for example nitrogen, to at least one refrigerant fluid, for example oxygen, the heat exchanger comprising plates (3, 11, 12, 13, 14) arranged parallel to one another in such a way as to define a first series of passages (20, 30) configured to channel liquid refrigerant overall along a longitudinal direction, extending in the vertical direction during operation, each passage (20, 30) being defined between two successive plates (11, 12-13, 14), and a second series of passages configured to channel a calorigenic fluid overall along the longitudinal direction, each passage being defined between two successive plates, the passages of the second series being inserted between two passages of the first series, at least one inlet (8; 508) of liquid refrigerant configured to pour the liquid refrigerant only into the passages of the first series and a distribution device, located in the upper end of the exchanger in passages of the first series only, comprising fins (21, 22, 23, 24 - 31, 32, 33, 34) extending in one, even in each passage (20, 30) of the first series overall along a lateral direction which is orthogonal to the longitudinal direction and which is parallel to the plates (11, 12, 13, 14), each passage (20, 30) of the first series housing several fins (21-24, 31-34) in succession along the longitudinal direction, characterised in that each fin (21-24, 31-34) has orifices configured to make it possible for the flow of the liquid refrigerant; at least one fin (21, 22, 23, 24) having an upper portion (21.1) and one lower portion (21.2), the altitude of the upper portion (21.1) being greater than the altitude of the lower portion (21.2) when the distribution device is in service and the longitudinal direction extends in the vertical direction, said at least one lower portion (21.2) and the plate secured to said at least one lower portion (21.2) defining at least one distribution channel (42; 142; 242) configured to channel liquid refrigerant along the lateral direction, the orifices of said at least one fin (21, 22, 23, 24) being formed by overflow openings (40; 140; 240) located in said at least one upper portion (21.1), the overflow openings being configured such that the liquid refrigerant flows through the overflow openings when said at least one distribution channel is full of liquid refrigerant.
A method of generating a radiotherapy plan for treating a subject on a radiotherapy device, the method comprising: generating a virtual treatment space by fusing a subject surface model with a model of the radiotherapy device; determining, based on the virtual treatment space, all feasible radiotherapy beams with orientations that avoid collision for the radiotherapy device and subject to provide a set of radiotherapy beams; selecting, from the set of radiotherapy beams, a subset of radiotherapy beams that meet treatment goals for the subject; calculating a navigation trajectory that delivers the subset of radiotherapy beams free of collision; generating and writing, to a tangible medium, instructions executable by the radiotherapy device in accordance with the subset of radiotherapy beams and navigation trajectory. generating a virtual treatment space by fusing a subject surface model with a model of the radiotherapy device; determining, based on the virtual treatment space, all feasible radiotherapy beams with orientations that avoid collision for the radiotherapy device and subject to provide a set of radiotherapy beams; selecting, from the set of radiotherapy beams, a subset of radiotherapy beams that meet treatment goals for the subject; calculating a navigation trajectory that delivers the subset of radiotherapy beams free of collision; generating and writing, to a tangible medium, instructions executable by the radiotherapy device in accordance with the subset of radiotherapy beams and navigation trajectory.
Contact pin, in particular a spring contact pin, comprising a test head for contacting an electrically conductive contact surface of a test object, in particular a wafer, a printed circuit board or the like, and comprising a pin sleeve, in which the test head is mounted with a guide end in a longitudinally displaceable manner, characterized by a circuit carrier which is at least in sections flexibly deformable/deformed, on which at least one electrical/electronic component is arranged and which is or can be axially inserted into the pin sleeve by rolling and/or folding.
A deflector jet servovalve comprising: a deflector jet servovalve pilot stage assembly comprising: a header; an amplifier having an amplifier segment having a bore defining an inlet, a first control port and a second control port; and, an integral actuator / flow guide comprising a multilayered piezoelectric actuator and a flow guide having a base portion which extends into the piezoelectric actuator; in which the integral actuator / flow guide is mounted to the header at a first end such that the flow guide is arranged for movement within the amplifier segment to direct flow from the inlet to the first and second control ports (1006, 1008) and a main stage valve comprising a spool; wherein the first control port is in fluid communication with a first end of the spool and the second control port is in fluid communication with a second end of the spool such that movement of the spool is controlled by pressures within the amplifier segment. a deflector jet servovalve pilot stage assembly comprising: a header; an amplifier having an amplifier segment having a bore defining an inlet, a first control port and a second control port; and, an integral actuator / flow guide comprising a multilayered piezoelectric actuator and a flow guide having a base portion which extends into the piezoelectric actuator; a header; an amplifier having an amplifier segment having a bore defining an inlet, a first control port and a second control port; and, an integral actuator / flow guide comprising a multilayered piezoelectric actuator and a flow guide having a base portion which extends into the piezoelectric actuator; in which the integral actuator / flow guide is mounted to the header at a first end such that the flow guide is arranged for movement within the amplifier segment to direct flow from the inlet to the first and second control ports (1006, 1008) and a main stage valve comprising a spool; wherein the first control port is in fluid communication with a first end of the spool and the second control port is in fluid communication with a second end of the spool such that movement of the spool is controlled by pressures within the amplifier segment.
Apparatus for processing an optical lens, with a processing device for machining or otherwise shaping a front and/or rear side (2D, 2E) of the lens, wherein the apparatus or a control device of the apparatus comprises or uses a design module comprising a design model for determining geometrical data and/or manufacturing data of the lens from desired optical data in a determination process, and characterized in that the apparatus has an acquisition device for acquiring an activation code, the activation code being a multi-digit alphanumeric number sequence, wherein a plurality of permissible activation codes are stored or saved in the apparatus or can be generated by means of an algorithm, wherein the appratus comprises a comparison means for comparing an activation code acquired by means of the acquisition device with the permissible activation codes, wherein the apparatus is designed in such a way that a determination of the geometrical data and/or manufacturing data from the desired optical data of the lens only takes place after the acquisition of a permissible activation code, and wherein a permissible activation code can be used only once for determining the geometric data and/or manufacturing data for a lens and can be used only in connection with a single specific lens. with a processing device for machining or otherwise shaping a front and/or rear side (2D, 2E) of the lens, wherein the apparatus or a control device of the apparatus comprises or uses a design module comprising a design model for determining geometrical data and/or manufacturing data of the lens from desired optical data in a determination process, and characterized in that the apparatus has an acquisition device for acquiring an activation code, the activation code being a multi-digit alphanumeric number sequence, wherein a plurality of permissible activation codes are stored or saved in the apparatus or can be generated by means of an algorithm, wherein the appratus comprises a comparison means for comparing an activation code acquired by means of the acquisition device with the permissible activation codes, wherein the apparatus is designed in such a way that a determination of the geometrical data and/or manufacturing data from the desired optical data of the lens only takes place after the acquisition of a permissible activation code, and wherein a permissible activation code can be used only once for determining the geometric data and/or manufacturing data for a lens and can be used only in connection with a single specific lens.
A liposome comprising a modified peptide having the structure: wherein R 1 and R 2 are each the same or different and are an alkyl chain having between 13 and 19 carbon atoms, R 3 is a peptide having a sequence according to SEQ ID NO:1, and wherein R 4 is a linker having the structure R 6 -R 5 -R 7, wherein R 6 and R 7 are each independently a bond or a carbonyl group; and R 5 is selected from the group consisting of: C 1-20 straight alkyl, C 3-20 branched alkyl, C 3-20 cyclic alkyl, and C 6-20 arylalkyl; and at least one cannabinoid. wherein R 1 and R 2 are each the same or different and are an alkyl chain having between 13 and 19 carbon atoms, R 3 is a peptide having a sequence according to SEQ ID NO:1, and wherein R 4 is a linker having the structure R 6 -R 5 -R 7, wherein R 6 and R 7 are each independently a bond or a carbonyl group; and R 5 is selected from the group consisting of: C 1-20 straight alkyl, C 3-20 branched alkyl, C 3-20 cyclic alkyl, and C 6-20 arylalkyl; and at least one cannabinoid.
A laminate comprising a thin film structural body and retention films (120a, 120b), wherein a first retention film is stacked on one face of the thin film structural body and a second retention film is stacked on another face of the thin film structural body, the thin film structural body has a first fine irregularity structure at a face that is in contact with the first retention film and has a second fine irregularity structure at a face that is in contact with the second retention film, the first retention film has a third fine irregularity structure (120a-1) at a face that is in contact with the thin film structural body, the second retention film has a fourth fine irregularity structure (120b-1) at a face that is in contact with the thin film structural body, the laminate includes a half cut section in a thickness direction, the half cut section completely severs the first retention film and the thin film structural body and severs up to partway through the second retention film, and the second retention film contains a UV-curable resin, and the second retention film has a storage modulus at 25°C of 1.1 GPa or less. a first retention film is stacked on one face of the thin film structural body and a second retention film is stacked on another face of the thin film structural body, the thin film structural body has a first fine irregularity structure at a face that is in contact with the first retention film and has a second fine irregularity structure at a face that is in contact with the second retention film, the first retention film has a third fine irregularity structure (120a-1) at a face that is in contact with the thin film structural body, the second retention film has a fourth fine irregularity structure (120b-1) at a face that is in contact with the thin film structural body, the laminate includes a half cut section in a thickness direction, the half cut section completely severs the first retention film and the thin film structural body and severs up to partway through the second retention film, and the second retention film contains a UV-curable resin, and the second retention film has a storage modulus at 25°C of 1.1 GPa or less.
A channel code communication method executed by a base station in a CDMA, Code Division Multiple Access, mobile communication system, comprising the steps of: transmitting to a mobile station a signal spread with an orthogonal code assigned to a primary scrambling code being a code identifying the base station, characterized by: transmitting to the mobile station a secondary scrambling code identifier which is information about a secondary scrambling code, over a downlink common control channel that is transmitted by using the primary scrambling code, when a number of orthogonal codes associated with the primary scrambling code to assign a channel using the primary scrambling code is insufficient, wherein the secondary scrambling code identifier is to be used by the mobile station to generate the secondary scrambling code by combining a primary scrambling code identifier of the primary scrambling code, which is information about the primary scrambling code, and the secondary scrambling code identifier; and transmitting to the mobile station a data signal scrambled with the secondary scrambling code. transmitting to a mobile station a signal spread with an orthogonal code assigned to a primary scrambling code being a code identifying the base station, characterized by: transmitting to the mobile station a secondary scrambling code identifier which is information about a secondary scrambling code, over a downlink common control channel that is transmitted by using the primary scrambling code, when a number of orthogonal codes associated with the primary scrambling code to assign a channel using the primary scrambling code is insufficient, wherein the secondary scrambling code identifier is to be used by the mobile station to generate the secondary scrambling code by combining a primary scrambling code identifier of the primary scrambling code, which is information about the primary scrambling code, and the secondary scrambling code identifier; and transmitting to the mobile station a data signal scrambled with the secondary scrambling code. transmitting to the mobile station a secondary scrambling code identifier which is information about a secondary scrambling code, over a downlink common control channel that is transmitted by using the primary scrambling code, when a number of orthogonal codes associated with the primary scrambling code to assign a channel using the primary scrambling code is insufficient, wherein the secondary scrambling code identifier is to be used by the mobile station to generate the secondary scrambling code by combining a primary scrambling code identifier of the primary scrambling code, which is information about the primary scrambling code, and the secondary scrambling code identifier; and transmitting to the mobile station a data signal scrambled with the secondary scrambling code.