mhurhangee/ep-ind-claims huggingface dataset:
A refrigerating apparatus comprising: an insulation housing including an inner box, an outer box covering the inner box, and an insulation material filled between the inner box and the outer box; an insulation door configured to open or close an opening at a front of the insulation housing; a first refrigerating cycle that includes a first evaporation pipe; and a second refrigerating cycle that includes a second evaporation pipe; wherein the first evaporation pipe is attached to an outside of a top plate, the both side plates, the back plate, and a bottom plate of the inner box in such a manner that, as the first evaporation pipe goes from an upstream side to a downstream side of a flow of the refrigerant, the first evaporation pipe meanders outside the top plate, meanders outside the both side plates across a width extending through the both side plates and the back plate, further meanders outside the bottom plate, and the second evaporation pipe is attached to an outside of the top plate, the both side plates, the back plate, and the bottom plate of the inner box in such a manner that as the second evaporation pipe goes from an upstream side to a downstream side of the flow of the refrigerant, the second evaporation pipe meanders outside the top plate so as not to overlap the first evaporation pipe, meanders outside the both side plates and the back plate across a width extending through the both side plates and the back plate from an upper side to a lower side, further meanders outside the bottom plate. an insulation housing including an inner box, an outer box covering the inner box, and an insulation material filled between the inner box and the outer box; an insulation door configured to open or close an opening at a front of the insulation housing; a first refrigerating cycle that includes a first evaporation pipe; and a second refrigerating cycle that includes a second evaporation pipe; wherein the first evaporation pipe is attached to an outside of a top plate, the both side plates, the back plate, and a bottom plate of the inner box in such a manner that, as the first evaporation pipe goes from an upstream side to a downstream side of a flow of the refrigerant, the first evaporation pipe meanders outside the top plate, meanders outside the both side plates across a width extending through the both side plates and the back plate, further meanders outside the bottom plate, and the second evaporation pipe is attached to an outside of the top plate, the both side plates, the back plate, and the bottom plate of the inner box in such a manner that as the second evaporation pipe goes from an upstream side to a downstream side of the flow of the refrigerant, the second evaporation pipe meanders outside the top plate so as not to overlap the first evaporation pipe, meanders outside the both side plates and the back plate across a width extending through the both side plates and the back plate from an upper side to a lower side, further meanders outside the bottom plate.
A glove comprising: a first hand-shaped panel defining a periphery; a second hand-shaped panel also defining a periphery, the second hand-shaped panel being welded to the first hand-shaped panel about the peripheries of the panels in a manner that forms a hollow opening for receiving a hand, the first hand-shaped panel and the second handshaped panel being comprised of a film containing an elastomeric polymer, the elastomeric polymer comprising a thermoplastic polyurethane elastomer having a Shore A hardness, as determined according to ASTM Test D2240, of greater than 75 and less than 95, a polyolefin plastomer, or a styrenic block copolymer, each hand-shaped panel having a thickness of less than 0.2 mm (8 mils), wherein the first hand-shaped panel and the second hand-shaped panel have a tensile strength, as determined according to ASTM Test D412-06 using Die D, of at least 40 MPa and have a modulus at 100% elongation, as determined according to ASTM Test D412-06 using Die D, of from 2 MPa to 25 MPa; characterised in that the first handshaped panel and the second hand-shaped panel comprise a single ply film that is not laminated to any other material layers. a first hand-shaped panel defining a periphery; a second hand-shaped panel also defining a periphery, the second hand-shaped panel being welded to the first hand-shaped panel about the peripheries of the panels in a manner that forms a hollow opening for receiving a hand, the first hand-shaped panel and the second handshaped panel being comprised of a film containing an elastomeric polymer, the elastomeric polymer comprising a thermoplastic polyurethane elastomer having a Shore A hardness, as determined according to ASTM Test D2240, of greater than 75 and less than 95, a polyolefin plastomer, or a styrenic block copolymer, each hand-shaped panel having a thickness of less than 0.2 mm (8 mils), wherein the first hand-shaped panel and the second hand-shaped panel have a tensile strength, as determined according to ASTM Test D412-06 using Die D, of at least 40 MPa and have a modulus at 100% elongation, as determined according to ASTM Test D412-06 using Die D, of from 2 MPa to 25 MPa;
An immunoglobulin-binding protein comprising an amino acid sequence which is the same as an amino acid sequence of an immunoglobulin-binding domain of protein A except that the amino acid sequence of the immunoglobulin-binding protein comprises the amino acid sequence of any of SEQ ID NOs: 8, 13, 15, 17, 19, 28 to 32, 34, 35, and 37 to 40.
A multipurpose tool comprising: a first handle and a second handle configured for relative movement between a closed position and an open position, wherein the first handle defines a cavity that is accessible in response to the first handle and second handle being disposed in the open position relative to one another, and inaccessible in response to the first handle and second handle being disposed in the closed position relative to one another; a removable component disposed within the cavity of the first handle, wherein the removable component is accessible in response to the first handle and the second handle being disposed in the open position relative to one another; and a retention element disposed within the cavity configured for relative movement within the cavity between a capture position and a release position, wherein the retention element is biased in the capture position; wherein the retention element is configured to retain the removable component within the cavity in response to the retention element being disposed in the capture position, wherein the removable component is removable from the cavity in response to the retention element being moved to the release position, characterised in that the removable component is configured to drive the retention element from the capture position to the release position in response to the removable element being inserted into the cavity toward the capture position. a first handle and a second handle configured for relative movement between a closed position and an open position, wherein the first handle defines a cavity that is accessible in response to the first handle and second handle being disposed in the open position relative to one another, and inaccessible in response to the first handle and second handle being disposed in the closed position relative to one another; a removable component disposed within the cavity of the first handle, wherein the removable component is accessible in response to the first handle and the second handle being disposed in the open position relative to one another; and a retention element disposed within the cavity configured for relative movement within the cavity between a capture position and a release position, wherein the retention element is biased in the capture position; wherein the retention element is configured to retain the removable component within the cavity in response to the retention element being disposed in the capture position, wherein the removable component is removable from the cavity in response to the retention element being moved to the release position, characterised in that the removable component is configured to drive the retention element from the capture position to the release position in response to the removable element being inserted into the cavity toward the capture position.
Process for the synthesis of ammonia wherein: a) ammonia make-up gas containing hydrogen and nitrogen is reacted in an ammonia converter at ammonia synthesis pressure obtaining an ammonia-containing effluent; b) said ammonia-containing effluent is subject to a cooling and separation step obtaining liquid ammonia and a side stream containing hydrogen and impurities; c) at least a portion of said side stream is subject to a hydrogen recovery process obtaining recovered hydrogen; d) a first portion of the hydrogen contained in the ammonia make-up gas is produced by reforming a hydrocarbon source in a reforming process; e) a second portion of the hydrogen contained in the ammonia make-up gas is produced separately from said reforming process by using a renewable energy source; f) at least a portion of said recovered hydrogen obtained at step c) is sent to a hydrogen storage; g) hydrogen from said storage is used to fully or partly replace said second portion of hydrogen of step e) when said renewable energy source is fully or partly unavailable. a) ammonia make-up gas containing hydrogen and nitrogen is reacted in an ammonia converter at ammonia synthesis pressure obtaining an ammonia-containing effluent; b) said ammonia-containing effluent is subject to a cooling and separation step obtaining liquid ammonia and a side stream containing hydrogen and impurities; c) at least a portion of said side stream is subject to a hydrogen recovery process obtaining recovered hydrogen; d) a first portion of the hydrogen contained in the ammonia make-up gas is produced by reforming a hydrocarbon source in a reforming process; e) a second portion of the hydrogen contained in the ammonia make-up gas is produced separately from said reforming process by using a renewable energy source; f) at least a portion of said recovered hydrogen obtained at step c) is sent to a hydrogen storage; g) hydrogen from said storage is used to fully or partly replace said second portion of hydrogen of step e) when said renewable energy source is fully or partly unavailable.
A transcatheter valve prosthesis comprising: a tubular stent having a compressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent; and a plurality of self-expanding struts (332, 632, 732), each strut having a first end (334, 734) coupled to a distal end of the tubular stent and a free end (336, 636, 736) not coupled to the tubular stent, wherein each strut is moveable between a compressed configuration in which the strut (332, 632, 732) extends distally away from the distal end of the stent and a deployed configuration in which the strut has a C-shape that extends proximally away from the distal end of the stent and is twisted such that the C-shape is oriented substantially flush with an outer surface of the stent. a tubular stent having a compressed configuration for delivery within a vasculature and an expanded configuration for deployment within a native heart valve; a prosthetic valve component disposed within and secured to the stent; and a plurality of self-expanding struts (332, 632, 732), each strut having a first end (334, 734) coupled to a distal end of the tubular stent and a free end (336, 636, 736) not coupled to the tubular stent, wherein each strut is moveable between a compressed configuration in which the strut (332, 632, 732) extends distally away from the distal end of the stent and a deployed configuration in which the strut has a C-shape that extends proximally away from the distal end of the stent and is twisted such that the C-shape is oriented substantially flush with an outer surface of the stent.
A method for selecting an appropriately sized oral appliance from an inventory of oral appliances of different sizes, said method characterised by comprising: obtaining an image of a patient's dental arch showing the positions of individual teeth; determining a width between opposed teeth on the image; selecting one arch sizing template from a group of arch templates (28S, 28M, 28L) based on the determined width; aligning the arch sizing template (28S, 28M, 28L) over the image of the dental arch so that bottom markings are over or adjacent to the opposed molars; determining which one of a plurality of arcs (34A, 34B, 34C, 34D) on the template align best with the patient's dental arch image; and selecting an oral appliance having a molar width and arch geometry which best match those of the dental arch on the template (28S, 28M, 28L) which aligned best with the dental arch image. obtaining an image of a patient's dental arch showing the positions of individual teeth; determining a width between opposed teeth on the image; selecting one arch sizing template from a group of arch templates (28S, 28M, 28L) based on the determined width; aligning the arch sizing template (28S, 28M, 28L) over the image of the dental arch so that bottom markings are over or adjacent to the opposed molars; determining which one of a plurality of arcs (34A, 34B, 34C, 34D) on the template align best with the patient's dental arch image; and selecting an oral appliance having a molar width and arch geometry which best match those of the dental arch on the template (28S, 28M, 28L) which aligned best with the dental arch image.
Timepiece comprising a drive module, a dial comprising a central opening, an hour pipe passing through the central opening of the dial and driven in rotation by the drive module, and a device for attaching the dial, in which said attachment device comprises: - a holding tube arranged around the hour pipe and mechanically connected to the drive module, and - a retaining member (20a, 20b, 20c) arranged between the holding tube and the dial and/or a dial support to which the dial is attached, characterised in that said retaining member (20a, 20b, 20c) is a part fixed thereto. - a holding tube arranged around the hour pipe and mechanically connected to the drive module, and - a retaining member (20a, 20b, 20c) arranged between the holding tube and the dial and/or a dial support to which the dial is attached, characterised in that said retaining member (20a, 20b, 20c) is a part fixed thereto.
A method for forming an oxidation protection system on a carbon-carbon composite structure, comprising: applying a ceramic layer slurry to the composite structure, wherein the ceramic layer slurry comprises aluminum and silicon carbide in a sol; and heating the composite structure to form a ceramic layer on the composite structure, wherein the ceramic layer comprises between 1% and 20% by weight alumina, between 50% and 80% by weight silicon carbide, and between 10% and 30% by weight silicon oxycarbide applying a ceramic layer slurry to the composite structure, wherein the ceramic layer slurry comprises aluminum and silicon carbide in a sol; and heating the composite structure to form a ceramic layer on the composite structure, wherein the ceramic layer comprises between 1% and 20% by weight alumina, between 50% and 80% by weight silicon carbide, and between 10% and 30% by weight silicon oxycarbide
A rotary shaver comprising at least an external cutting element, an internal cutting element being rotatable with respect to the external cutting element about an axis of rotation, and a disc-shaped element which covers at least part of the external cutting element, wherein the external cutting element is at least provided with a passage, whilst the disc-shaped element is at least provided with a pen (17, 117) having a length, which pen (17, 117) is press-fitted in the passage, wherein the passage of the external cutting element and the pen (17, 117) of the disc-shaped element extend coaxially with the axis of rotation, and wherein between a wall of the passage and the pen (17, 117) at least one vent (20, 120) extends at least along the length of the pen (17, 117) and parallel to a central axis of the pen (17, 117), characterized in that the pen (17, 117) is provided with at least three ribs (19, 119) extending parallel to the central axis of the pen (17, 117), wherein the at least one vent (20, 120) is located between adjacent ribs (19, 119) and the wall of the passage.
An energy storage device for a motor vehicle, comprising a first electrical energy store, which is characterised by a first characteristic voltage curve, which defines the open-circuit voltage of the first electrical energy store depending on the relative state of charge of the first electrical energy store, and by a first characteristic resistance curve, which defines the internal resistance of the first electrical energy store relevant for a charging process of the first electrical energy store depending on the relative state of charge of the first electrical energy store, and comprising a second electrical energy store, which is connected in parallel to the first electrical energy store and which is characterised by a second characteristic voltage curve, which defines the open-circuit voltage of the second electrical energy store depending on the relative state of charge of the second electrical energy store, and by a second characteristic resistance curve, which defines the internal resistance of the second electrical energy store relevant for a charging process of the second electrical energy store depending on the relative state of charge of the second electrical energy store, characterised in that - the voltage value range covered by the first characteristic voltage curve and the voltage value range covered by the second characteristic voltage curve partially overlap, and - the first characteristic resistance curve and the second characteristic resistance curve have exactly one point of intersection, and in that - with application of an external charging voltage to the energy storage device, the first and second energy stores are connected in parallel so as to bring about the charging of the energy store with the lower charging resistance depending on the relative states of charge. - the voltage value range covered by the first characteristic voltage curve and the voltage value range covered by the second characteristic voltage curve partially overlap, and - the first characteristic resistance curve and the second characteristic resistance curve have exactly one point of intersection, and in that - with application of an external charging voltage to the energy storage device, the first and second energy stores are connected in parallel so as to bring about the charging of the energy store with the lower charging resistance depending on the relative states of charge.
A device for detecting a QRS complex of an electrocardiogram signal with a connection to the ECG signal measurement module, wherein the device comprises an ABS_DIFF_SHORT_MODULE module that determines the signal being the difference of the current instantaneous value of the ECG signal and an average SHORT_AVG value of the ECG signal calculated for a T_SHORT time interval with a predetermined length, and an ABS_DIFF_LONG_MODULE module, which determines the signal being the difference of the current instantaneous value of the ECG signal and an average LONG_AVG value of the ECG signal calculated for the T_LONG time interval of a fixed length, inputs of which are connected to an output of a ECG_MODULE measuring module of the ECG signal, while the ABS_DIFF_SHORT_MODULE module output is connected to one of a COMP comparator inputs, and the ABS_DIFF_LONG_MODULE module output is connected to a PEAK_DETECTOR detection module input, adapted to detect during a SEARCHING_WINDOW time window to search for a R wave in the QRS complex, the maximum value of the signal being the difference of the current instantaneous value of the ECG signal and its average LONG_AVG value calculated for the T_LONG time segment, which is considered the amplitude of the R wave in the QRS complex, and at the same time is adapted to detect the time of the occurrence of the maximum value of the signal determined in this way, which is considered to be the moment of the R wave occurrence in the QRS complex, with the output of COMP comparator connected to the input of a PULSE GENERATOR pulse generator, which generates the pulse with the time duration of the SEARCHING_WINDOW time window, which is used to search for the R wave in the QRS complex of the ECG signal, while the output of the PULSE GENERATOR pulse generator is connected to the gating input of the PEAK_DETECTOR detection module and to an input of R_AMPLITUDE_MEMORY memory recording module for storing information about the R wave amplitude of the ECG signal, and also with the input of a R_TIMESTAMP_MEMORY memory recording module for storing information about the R wave occurrence of the ECG signal, while the PEAK_DETECTOR detection module output is also connected to the R_AMPLITUDE_MEMORY and R_TIMESTAMP_MEMORY memory module inputs, and the output of the memory module R_AMPLITUDE_MEMORY is connected to the input of a TH_MODULE module, adapted to determine a current threshold value TH based on the detected with the PEAK_DETECTOR detection module and stored with the R_AMPLITUDE_MEMORY amplitude of the R wave in the previous QRS complexes of the ECG signal, with the output of the TH_MODULE module also connected to one of the comparator COMP inputs.
A computer implemented method for determining a digital voltage replica of a substation, the substation being represented as a single line diagram having switchgear components, each switchgear component being associated with a logical node, the method comprising: obtaining a substation topology; identifying and numbering the connectivity nodes of the topology, each connectivity node being a point in the single line diagram representing a common potential; generating a node model from the topology, the model representing each switchgear component by a pair of two connectivity nodes, the model comprising combined strings of consecutive pairs of connectivity nodes; obtaining switchgear status data; animating the node model by assigning for each switchgear the obtained switchgear status data to the respective pair of connectivity nodes (N0 - N12); determining a reference voltage node for a target connectivity node by means of a path search from the target connectivity node to a reference voltage transformer. obtaining a substation topology; identifying and numbering the connectivity nodes of the topology, each connectivity node being a point in the single line diagram representing a common potential; generating a node model from the topology, the model representing each switchgear component by a pair of two connectivity nodes, the model comprising combined strings of consecutive pairs of connectivity nodes; obtaining switchgear status data; animating the node model by assigning for each switchgear the obtained switchgear status data to the respective pair of connectivity nodes (N0 - N12); determining a reference voltage node for a target connectivity node by means of a path search from the target connectivity node to a reference voltage transformer.