mhurhangee/patent-ind-claim-en huggingface dataset:
A cooler , comprising: an outer frame ; a product space within the outer frame ; and a plurality of shelf assemblies positioned within the product space ; the plurality of shelf assemblies comprising an evaporator coil and one or more phase change material cells with a phase change material therein; the plurality of shelf assemblies dividing the product space into a plurality of shelf chambers , each having the evaporator coil and the one or more phase change material cells on a top and bottom thereof, the plurality of shelf assemblies comprising a top surface and a bottom surface , the cooler being characterised by the phase change material being disposed within the phase change material cells positioned on top of and below the evaporator coil within the plurality of shelf assemblies between the top surface and the bottom surface of the plurality of shelf assemblies; the plurality of shelf assemblies comprising one or more layers of insulation positioned about the phase change material cells ; and the plurality of shelf assemblies comprising one or more spring loaded bolts positioned between the top surface and the bottom surface of the plurality of shelf assemblies, the one or more spring loaded bolts being configured to accommodate thermal expansion and contraction of the phase change material cells . an outer frame ; a product space within the outer frame ; and a plurality of shelf assemblies positioned within the product space ; the plurality of shelf assemblies comprising an evaporator coil and one or more phase change material cells with a phase change material therein; the plurality of shelf assemblies dividing the product space into a plurality of shelf chambers , each having the evaporator coil and the one or more phase change material cells on a top and bottom thereof, the plurality of shelf assemblies comprising a top surface and a bottom surface , the cooler being characterised by the phase change material being disposed within the phase change material cells positioned on top of and below the evaporator coil within the plurality of shelf assemblies between the top surface and the bottom surface of the plurality of shelf assemblies; the plurality of shelf assemblies comprising one or more layers of insulation positioned about the phase change material cells ; and the plurality of shelf assemblies comprising one or more spring loaded bolts positioned between the top surface and the bottom surface of the plurality of shelf assemblies, the one or more spring loaded bolts being configured to accommodate thermal expansion and contraction of the phase change material cells .
A composition comprising: i) 0.01 to 2 wt% peptide or peptide derivative; ii) 0.01 to 4 wt% saccharide or modified saccharide; iii) 35 to 50 wt% petrolatum; and iv) 40 to 60 wt% isopropyl myristate, with the proviso that the sum of the components of the total composition does not exceed 100 wt%. i) 0.01 to 2 wt% peptide or peptide derivative; ii) 0.01 to 4 wt% saccharide or modified saccharide; iii) 35 to 50 wt% petrolatum; and iv) 40 to 60 wt% isopropyl myristate,
Method, implemented by a switch of a communication network, said switch being designed to transmit, for routing in an IMS subsystem, operating in packet-switched mode, of said communication network, translations into packet-switched mode of signalling messages in circuit-switched mode relating to IMS communication services of said IMS subsystem and received via a mobile access network for accessing said communication network, operating in circuit-switched mode, and vice versa, the method being characterized in that it comprises: - receiving at least one first signalling message in packet-switched mode relating to a first communication service of said IMS subsystem provided to a client equipment connected to said communication network via a mobile access network operating in packet-switched mode, - modifying said first signalling message, comprising a replacement step, in which: when said first signalling message is received from the client equipment via said mobile access network in packet-switched mode, in a source address field of the first signalling message, an address of the client equipment is replaced with an address of the switch; and when said first signalling message is received from said IMS subsystem, in a recipient address field, the address of the switch is replaced with the address of the client equipment; - sending said modified first signalling message. - receiving at least one first signalling message in packet-switched mode relating to a first communication service of said IMS subsystem provided to a client equipment connected to said communication network via a mobile access network operating in packet-switched mode, - modifying said first signalling message, comprising a replacement step, in which: when said first signalling message is received from the client equipment via said mobile access network in packet-switched mode, in a source address field of the first signalling message, an address of the client equipment is replaced with an address of the switch; and when said first signalling message is received from said IMS subsystem, in a recipient address field, the address of the switch is replaced with the address of the client equipment; when said first signalling message is received from the client equipment via said mobile access network in packet-switched mode, in a source address field of the first signalling message, an address of the client equipment is replaced with an address of the switch; and when said first signalling message is received from said IMS subsystem, in a recipient address field, the address of the switch is replaced with the address of the client equipment; - sending said modified first signalling message.
A passive, thermally insulated container for transporting products at a temperature above or below ambient temperature, the container comprising: a top wall , vertical walls and a bottom wall , which are thermally insulated and which are bounding a transport chamber for accommodating products to be transported; goods carriers in the transport chamber , wherein the goods carriers are shaped and dimensioned for leaving passages for circulation of air through the goods carriers and/or between the goods carriers and the vertical walls ; and at least one heat accumulator ; at least one vane is suspended in said transport chamber in a rotatable manner about at least one pivot axis , respectively, characterized in that said at least one pivot axis is situated at at least one fixed location, respectively, relative to said transport chamber , so that said at least one vane rotatably moves about said at least one pivot axis , respectively, in reaction to agitation of the container , which in turn causes agitation of the air in the transport chamber adjacent to the vane . a top wall , vertical walls and a bottom wall , which are thermally insulated and which are bounding a transport chamber for accommodating products to be transported; goods carriers in the transport chamber , wherein the goods carriers are shaped and dimensioned for leaving passages for circulation of air through the goods carriers and/or between the goods carriers and the vertical walls ; and at least one heat accumulator ; at least one vane is suspended in said transport chamber in a rotatable manner about at least one pivot axis , respectively, characterized in that said at least one pivot axis is situated at at least one fixed location, respectively, relative to said transport chamber , so that said at least one vane rotatably moves about said at least one pivot axis , respectively, in reaction to agitation of the container , which in turn causes agitation of the air in the transport chamber adjacent to the vane .
A method for detecting a diol suspected to be present in a sample, comprising: contacting the sample with a nucleic acid or polypeptide probe covalently linked to one or more reactive organoboronic moiety that is capable of specifically binding to the diol under conditions for the diol to bind to the reactive organoboronic moiety; loading a charged polymeric scaffold, in the presence of the sample, through a pore of a device by applying a voltage across the pore, wherein the pore is located between two volumes of an interior space of said device, wherein the device is configured to pass the polymeric scaffold through the pore from one volume to the other volume, wherein the device further comprises a sensor configured to identify objects passing through the pore, and wherein the probe specifically recognizes and binds to a site on the polymeric scaffold; and determining with the sensor whether the probe bound to the polymeric scaffold is bound to the diol. contacting the sample with a nucleic acid or polypeptide probe covalently linked to one or more reactive organoboronic moiety that is capable of specifically binding to the diol under conditions for the diol to bind to the reactive organoboronic moiety; loading a charged polymeric scaffold, in the presence of the sample, through a pore of a device by applying a voltage across the pore, wherein the pore is located between two volumes of an interior space of said device, wherein the device is configured to pass the polymeric scaffold through the pore from one volume to the other volume, wherein the device further comprises a sensor configured to identify objects passing through the pore, and wherein the probe specifically recognizes and binds to a site on the polymeric scaffold; and determining with the sensor whether the probe bound to the polymeric scaffold is bound to the diol.
Wheel, in particular for motor vehicles, with a wheel rim and a wheel disc , where the wheel rim has a rim base made of fibre composite material and the wheel disc is joined by means of a connecting element to the wheel rim , in particular to the rim base of the wheel rim , where the connecting element is a separating and spacing means for indirectly connecting the wheel disc to the rim base and is designed and assigned to the rim base in such a way that the joined wheel disc is arranged with respect to the rim base without touching.
Process for manufacturing a bicycle wheel component, comprising the steps of: a) providing a bicycle wheel component having at least one braking area configured to cooperate with a braking body , said braking area being made by molding of composite material comprising structural fibers incorporated in a polymeric material, and b) carrying out post-molding machining of at least one region of said at least one braking area , comprising the steps of: b1) removing only polymeric material , without removal of the structural fiber , from the entire region so that the structural fiber outcrops at least in part from the polymeric material , characterized in that the process further comprises the step of: b2) removing the structural fiber and possibly the polymeric material according to at least one groove within the region. a) providing a bicycle wheel component having at least one braking area configured to cooperate with a braking body , said braking area being made by molding of composite material comprising structural fibers incorporated in a polymeric material, and b) carrying out post-molding machining of at least one region of said at least one braking area , comprising the steps of: b1) removing only polymeric material , without removal of the structural fiber , from the entire region so that the structural fiber outcrops at least in part from the polymeric material , characterized in that the process further comprises the step of: b2) removing the structural fiber and possibly the polymeric material according to at least one groove within the region. b1) removing only polymeric material , without removal of the structural fiber , from the entire region so that the structural fiber outcrops at least in part from the polymeric material , b2) removing the structural fiber and possibly the polymeric material according to at least one groove within the region.
A photovoltaic module, comprising: at least one cell unit group , wherein the at least one cell unit group comprises a plurality of cell strings connected in series and/or in parallel, and adjacent cell strings in the plurality of cell strings are connected by a connection structure; wherein the connection structure comprises a lead-out structure , and the lead-out structure comprises a main body portion , a first connecting portion and a second connecting portion that are arranged on the main body portion ; the first connecting portion is connected to the second connecting portion , the first connecting portion is disposed in parallel to a length direction of the main body portion , and the second connecting portion extends out of the first connecting portion ; the main body portion has a first edge in the length direction of the main body portion , the second connecting portion is closer to the first edge relative to the first connecting portion , and a distance between the second connecting portion and the first edge ranges from 2mm to 20mm. at least one cell unit group , wherein the at least one cell unit group comprises a plurality of cell strings connected in series and/or in parallel, and adjacent cell strings in the plurality of cell strings are connected by a connection structure; wherein the connection structure comprises a lead-out structure , and the lead-out structure comprises a main body portion , a first connecting portion and a second connecting portion that are arranged on the main body portion ; the first connecting portion is connected to the second connecting portion , the first connecting portion is disposed in parallel to a length direction of the main body portion , and the second connecting portion extends out of the first connecting portion ; the main body portion has a first edge in the length direction of the main body portion , the second connecting portion is closer to the first edge relative to the first connecting portion , and a distance between the second connecting portion and the first edge ranges from 2mm to 20mm.
A mincing drum for a cutting and separating device, at the first end section of which there is an inlet opening and at the second end section of which there is an outlet opening , a plurality of cutting openings being arranged in a pressure housing section of the mincing drum and passing continuously through the pressure housing section from an inner wall to an outer wall , each cutting opening having, on the inner wall , a cutting opening edge facing the outlet opening and a drawing-in opening edge facing the inlet opening , characterized in that, a feed channel which is recessed relative to the inner wall is situated between the cutting opening edge and the drawing-in opening edge .
A nautical chart display device , comprising: a display unit having a screen and configured to display a nautical chart on the screen; an operation detector configured to detect a touch operation to the screen; a registration processing module for setting an additional scale on the nautical chart; and a change processing module configured to change a current scale of the nautical chart to the additional scale; characterised in that : the registration processing module is configured to register a scale at which an inter-touch distance that is a distance between two points of the detected touch operation to the screen matches a distance setting on the nautical chart as the additional scale; and the registration processing module accepts a specification of a required time and sets a moving distance a ship moves during the required time at a specified ship speed as the distance setting. a display unit having a screen and configured to display a nautical chart on the screen; an operation detector configured to detect a touch operation to the screen; a registration processing module for setting an additional scale on the nautical chart; and a change processing module configured to change a current scale of the nautical chart to the additional scale; characterised in that : the registration processing module is configured to register a scale at which an inter-touch distance that is a distance between two points of the detected touch operation to the screen matches a distance setting on the nautical chart as the additional scale; and the registration processing module accepts a specification of a required time and sets a moving distance a ship moves during the required time at a specified ship speed as the distance setting. the registration processing module is configured to register a scale at which an inter-touch distance that is a distance between two points of the detected touch operation to the screen matches a distance setting on the nautical chart as the additional scale; and the registration processing module accepts a specification of a required time and sets a moving distance a ship moves during the required time at a specified ship speed as the distance setting.
An MRI system coil insert for use within a bore of a main MRI system , the coil insert comprising at least one gradient coil configured for creating a spatially varying magnetic field along a respective axis and being arranged to be electrically driven at an ultrasonic frequency, wherein the insert comprises a first gradient coil and a second gradient coil , at least one first capacitor (Cx) is electrically connected to the first gradient coil so as to make the first gradient coil resonant at a first predetermined ultrasonic frequency, and at least one second capacitor (Cz) is electrically connected to the second gradient coil so as to make the second gradient coil resonant at a second predetermined ultrasonic frequency, and wherein the first predetermined ultrasonic frequency is different from the second predetermined ultrasonic frequency and the difference in frequency between the first predetermined ultrasonic frequency and the second predetermined ultrasonic frequency is an inaudible frequency.
A loop-type heat pipe comprising: an evaporator configured to vaporize an operating fluid; a condenser configured to condense the operating fluid; a liquid pipe configured to connect the evaporator and the condenser ; a vapor pipe configured to connect the evaporator and the condenser and to form a loop together with the liquid pipe ; a first porous body provided in the evaporator ; and a second porous body provided in the liquid pipe , wherein a connection region between the evaporator and the liquid pipe comprises: a first extension part extending from the first porous body toward the second porous body , and a space part in contact with the first extension part , characterized in that a leading end of the first extension part is inserted in a first concave part formed in the second porous body . an evaporator configured to vaporize an operating fluid; a condenser configured to condense the operating fluid; a liquid pipe configured to connect the evaporator and the condenser ; a vapor pipe configured to connect the evaporator and the condenser and to form a loop together with the liquid pipe ; a first porous body provided in the evaporator ; and a second porous body provided in the liquid pipe , wherein a connection region between the evaporator and the liquid pipe comprises: a first extension part extending from the first porous body toward the second porous body , and a space part in contact with the first extension part , characterized in that a leading end of the first extension part is inserted in a first concave part formed in the second porous body . a first extension part extending from the first porous body toward the second porous body , and a space part in contact with the first extension part , characterized in that a leading end of the first extension part is inserted in a first concave part formed in the second porous body .
A method comprising: maintaining at a network element a flow table , wherein the flow table comprises a plurality of flow table entries and wherein each of the flow table entries corresponds to one of a plurality of active data flows in a network; subsequent to receipt at the network element of a data packet of one of the active flows, characterizing the one of the active flows as a large flow or a short flow, using values contained in the flow table entry corresponding to the one of the active flows; and processing the received packet in accordance with the characterization, the processing comprising: reducing an interrupt coalescence, IC, parameter if the one of the flows is a short flow, wherein a low IC parameter value corresponds to reduced consolidation of CPU interrupts and a high IC parameter value corresponds to increased consolidation of CPU interrupts; and increasing the IC parameter if the one of the flows is a large flow. maintaining at a network element a flow table , wherein the flow table comprises a plurality of flow table entries and wherein each of the flow table entries corresponds to one of a plurality of active data flows in a network; subsequent to receipt at the network element of a data packet of one of the active flows, characterizing the one of the active flows as a large flow or a short flow, using values contained in the flow table entry corresponding to the one of the active flows; and processing the received packet in accordance with the characterization, the processing comprising: reducing an interrupt coalescence, IC, parameter if the one of the flows is a short flow, wherein a low IC parameter value corresponds to reduced consolidation of CPU interrupts and a high IC parameter value corresponds to increased consolidation of CPU interrupts; and increasing the IC parameter if the one of the flows is a large flow. reducing an interrupt coalescence, IC, parameter if the one of the flows is a short flow, wherein a low IC parameter value corresponds to reduced consolidation of CPU interrupts and a high IC parameter value corresponds to increased consolidation of CPU interrupts; and increasing the IC parameter if the one of the flows is a large flow.