mhurhangee/ep-ind-claims huggingface dataset:
Swing door system for use with a freezer device, comprising two adjacent swing doors (1a, 1b) and at least one mullion being in contact with said swing doors (1a, 1b), wherein each swing door (1a, 1b) comprises a transparent pane (3a, 3b) and a non-transparent area, wherein each non-transparent area is proximal to the mullion when the swing doors (1a, 1b) are in a closed position, wherein the non-transparent areas and the mullion define a non-transparent region, wherein in a plurality of horizontal see-through angles (32, 32', 33) a view through the transparent panes (3a, 3b) is not totally blocked by the non-transparent region, wherein the horizontal see-through angle (32, 32', 33) is measured with respect to the plane in which the swing doors (1a, 1b) are arranged when the swing doors (1a, 1b) are in the closed position, and wherein said horizontal see-through angle is the angle between the plane in which the swing doors (1a, 1b) are arranged when the swing doors (1a, 1b) are in the closed position and the direction of view, wherein the direction of view itself lies within a plane being perpendicular to the plane in which the swing doors (1a, 1b) are arranged when the swing doors (1a, 1b) are in a closed position and being perpendicular to the longitudinal extension of the mullion, characterized in that when a width of at least one of the swing doors (1a, 1b) is in the range of 500 mm to 780 mm the plurality of horizontal see-through angles (32, 32', 33) ranges from 6° to 174°, preferably 5° to 175°, more preferably 4° to 176°, and/or wherein when a width of at least one of the swing doors (1a, 1b) is in the range of greater than 780 mm and equal to or lower than 1000 mm, the plurality of horizontal see-through angles (32, 32', 33) ranges from 5° to 175°, preferably 4° to 176°, more preferably 3° to 177°, and wherein a part of the mullion reaches in between the two adjacent swing doors (1a, 1b), when the swing doors (1a, 1b) are in the closed position.
A method of beneficiating a solid carbonaceous material comprising: comminuting a solid carbonaceous material feedstock to form a crushed feedstock; compacting the crushed feedstock in a roll press comprising first and second counter-rotating rolls, to form a compacted material, and drying the compacted material at a material temperature of less than 100°C to produce a solid carbonaceous material, wherein the first and second counter-rotating rolls of the roll press comprise a circumferential profile of assemblages of ridge and valley arcs that repeat at equal spacing around the circumference of the roll, and are connected by straight tangent segments, characterised in that the first and second rolls of the roll press are rotated together in a timed ridge-to-valley process to compact the crushed feedstock between respective peaks and valleys of the first and second counter-rotating rolls. comminuting a solid carbonaceous material feedstock to form a crushed feedstock; compacting the crushed feedstock in a roll press comprising first and second counter-rotating rolls, to form a compacted material, and drying the compacted material at a material temperature of less than 100°C to produce a solid carbonaceous material, wherein the first and second counter-rotating rolls of the roll press comprise a circumferential profile of assemblages of ridge and valley arcs that repeat at equal spacing around the circumference of the roll, and are connected by straight tangent segments, characterised in that the first and second rolls of the roll press are rotated together in a timed ridge-to-valley process to compact the crushed feedstock between respective peaks and valleys of the first and second counter-rotating rolls.
A method comprising: generating, by a controlling device of a network, an out-of-band end to end flow control message comprising an identifier of a first network device causing a congestion of data traffic, and an identifier of a second network device coupled to the first network device; and transmitting, by the controlling device, the end to end flow control message to the second network device. generating, by a controlling device of a network, an out-of-band end to end flow control message comprising an identifier of a first network device causing a congestion of data traffic, and an identifier of a second network device coupled to the first network device; and transmitting, by the controlling device, the end to end flow control message to the second network device.
A thoracic valve seal system (140, 300), comprising: a carrier layer formed of a pliable sheet material; an adhesive material (335, 350) on one surface of the carrier layer; a valve that permits fluid to flow through the valve in only one direction; a housing that couples to the carrier layer and that, when sealed around a wound by the adhesive material on the carrier layer, supports the valve in an orientation relative to the patient's body to permit fluids to flow only from the wound to a region outside of the body, the housing comprising: a bottom housing that includes a sealing cavity to provide fluid communication from the wound to the valve when sealed around the wound; and, a top housing that couples to the bottom housing, wherein the top housing and the bottom housing include a plurality of support bosses and support pins configured to extend between the top and the bottom housing to mate to each other, wherein the bottom housing and the top housing each include an annular flange extending radially around a periphery of the valve and lying in parallel planes to form an annular cavity between the top housing and the bottom housing to permit lateral fluid flow discharge from the valve assembly. a carrier layer formed of a pliable sheet material; an adhesive material (335, 350) on one surface of the carrier layer; a valve that permits fluid to flow through the valve in only one direction; a housing that couples to the carrier layer and that, when sealed around a wound by the adhesive material on the carrier layer, supports the valve in an orientation relative to the patient's body to permit fluids to flow only from the wound to a region outside of the body, the housing comprising: a bottom housing that includes a sealing cavity to provide fluid communication from the wound to the valve when sealed around the wound; and, a top housing that couples to the bottom housing, a bottom housing that includes a sealing cavity to provide fluid communication from the wound to the valve when sealed around the wound; and, a top housing that couples to the bottom housing, wherein the top housing and the bottom housing include a plurality of support bosses and support pins configured to extend between the top and the bottom housing to mate to each other, wherein the bottom housing and the top housing each include an annular flange extending radially around a periphery of the valve and lying in parallel planes to form an annular cavity between the top housing and the bottom housing to permit lateral fluid flow discharge from the valve assembly.
A blender comprising: a container body for receiving food; a main body provided under the container body and configured to support the container body; and wherein a support member is provided inside a main body casing of the main body for preventing sagging of the main body casing, the support member is provided under an upper surface of the main body casing constituting an exterior of the main body; wherein the main body comprises a heat dissipation member and a heat dissipation frame which fixedly supports the heat dissipation member provided inside the main body; characterized in that the upper surface of the main body casing, the support member, and the heat dissipation frame are in vertical close contact with each other. a container body for receiving food; a main body provided under the container body and configured to support the container body; and wherein a support member is provided inside a main body casing of the main body for preventing sagging of the main body casing, the support member is provided under an upper surface of the main body casing constituting an exterior of the main body; wherein the main body comprises a heat dissipation member and a heat dissipation frame which fixedly supports the heat dissipation member provided inside the main body; characterized in that the upper surface of the main body casing, the support member, and the heat dissipation frame are in vertical close contact with each other.
An optical device (100, 300, 600), comprising: an optical grating coupler (110, 310, 610) formed along a planar surface of a substrate, said grating coupler (110, 310, 610) including a pattern of concentric rings of ridges located on the surface, with each adjacent pair of the ridges being separated by a groove; a plurality of optical waveguides (120, 620) having first ends that terminate at an outermost one of the ridges, the first ends being about uniformly spaced along said outermost one of the ridges and being oriented radially with respect to a center of said concentric rings; said optical device characterized in a plurality of transition portions, each transition portion partially filling a region having an approximately wedge-shaped volume with side length L and height T that is bounded by the sidewalls of adjacent ones of the first ends of the waveguides (120, 620), wherein each of the transition portions includes a first subportion having a first thickness less than T and a second subportion having a second thickness that is less than the first thickness. an optical grating coupler (110, 310, 610) formed along a planar surface of a substrate, said grating coupler (110, 310, 610) including a pattern of concentric rings of ridges located on the surface, with each adjacent pair of the ridges being separated by a groove; a plurality of optical waveguides (120, 620) having first ends that terminate at an outermost one of the ridges, the first ends being about uniformly spaced along said outermost one of the ridges and being oriented radially with respect to a center of said concentric rings; said optical device characterized in a plurality of transition portions, each transition portion partially filling a region having an approximately wedge-shaped volume with side length L and height T that is bounded by the sidewalls of adjacent ones of the first ends of the waveguides (120, 620), wherein each of the transition portions includes a first subportion having a first thickness less than T and a second subportion having a second thickness that is less than the first thickness.
A ring laser gyroscope comprising: a cavity containing a gain medium having naturally dispersive properties associated with an index of refraction; a plurality of reflective surfaces (104, 106, 108) coupled to the cavity, comprising at least a first reflective surface, a second reflective surface, and a third reflective surface, wherein the first reflective surface, the second reflective surface, and the third reflective surface of the plurality of reflective surfaces are positioned to reflect light between the plurality of reflective surfaces; at least one medium exciter (112, 114) configured to excite the gain medium, wherein the excited gain medium induces first and second laser fields within the cavity, wherein the first and second laser fields operate at lasing frequencies away from the center of a gain profile for the ring laser gyroscope while the ring laser gyroscope is stationary and operating, the lasing frequencies away from the center of the gain profile corresponding to negative slopes of the index of refraction associated with the naturally dispersive properties of the gain medium while the ring laser gyroscope is stationary and operating; and wherein the gain medium causes anomalous dispersion of the first and second laser fields passing through the gain medium at the lasing frequencies away from the center of the gain profile. a cavity containing a gain medium having naturally dispersive properties associated with an index of refraction; a plurality of reflective surfaces (104, 106, 108) coupled to the cavity, comprising at least a first reflective surface, a second reflective surface, and a third reflective surface, wherein the first reflective surface, the second reflective surface, and the third reflective surface of the plurality of reflective surfaces are positioned to reflect light between the plurality of reflective surfaces; at least one medium exciter (112, 114) configured to excite the gain medium, wherein the excited gain medium induces first and second laser fields within the cavity, wherein the first and second laser fields operate at lasing frequencies away from the center of a gain profile for the ring laser gyroscope while the ring laser gyroscope is stationary and operating, the lasing frequencies away from the center of the gain profile corresponding to negative slopes of the index of refraction associated with the naturally dispersive properties of the gain medium while the ring laser gyroscope is stationary and operating; and wherein the gain medium causes anomalous dispersion of the first and second laser fields passing through the gain medium at the lasing frequencies away from the center of the gain profile.
A method for a network comprising a plurality of logical networks, the method comprising: distributing a plurality of packets which are associated with different sets of compute virtual machines, 'VMs', of different logical networks and which belong to a plurality of flows entering or exiting the different logical networks to a plurality of service VMs, 'SVMs', in different edge SVM clusters, with each SVM cluster performing a set of services on flows for a different logical network at an edge SVM providing access into or out of the logical network, wherein the different logical networks are implemented by configuring a shared set of managed physical forwarding elements (2820, 2830) executing on host computers in a datacenter, wherein the compute VMs and the SVMs execute on the host computers, and wherein each flow is assigned to one SVM in the edge SVM cluster of the flow's source or destination logical network and each SVM is assigned to perform stateful processing for at least one flow; and performing the stateful processing for the plurality of flows at the edge SVM clusters according to the assignment of the flows. distributing a plurality of packets which are associated with different sets of compute virtual machines, 'VMs', of different logical networks and which belong to a plurality of flows entering or exiting the different logical networks to a plurality of service VMs, 'SVMs', in different edge SVM clusters, with each SVM cluster performing a set of services on flows for a different logical network at an edge SVM providing access into or out of the logical network, wherein the different logical networks are implemented by configuring a shared set of managed physical forwarding elements (2820, 2830) executing on host computers in a datacenter, wherein the compute VMs and the SVMs execute on the host computers, and wherein each flow is assigned to one SVM in the edge SVM cluster of the flow's source or destination logical network and each SVM is assigned to perform stateful processing for at least one flow; and performing the stateful processing for the plurality of flows at the edge SVM clusters according to the assignment of the flows.
A method for operating a terminal in which characters are grouped into a plurality of character sets and a representative character of each of the character sets is imprinted on a respective key, comprising: displaying, in response to receiving an input for a key for a representative character, a first plurality of characters and a second plurality of characters belonging to a character set represented by the representative character on a display of the terminal; determining one of the first plurality of characters and the second plurality of characters, in response to receiving at least one input for one of a first directional key and a second directional key, according to a direction corresponding to the one of the first directional key and the second directional key; determining a character, among the one of the first plurality of characters and the second plurality of characters, according to a duration of the at least one input; and entering the determined character on the display of the terminal. displaying, in response to receiving an input for a key for a representative character, a first plurality of characters and a second plurality of characters belonging to a character set represented by the representative character on a display of the terminal; determining one of the first plurality of characters and the second plurality of characters, in response to receiving at least one input for one of a first directional key and a second directional key, according to a direction corresponding to the one of the first directional key and the second directional key; determining a character, among the one of the first plurality of characters and the second plurality of characters, according to a duration of the at least one input; and entering the determined character on the display of the terminal.
A method for speed dialing comprising: a terminal configuring pattern information of dialing, and establishing a correspondence between the pattern information and a contact person, wherein the pattern information comprises a letter key corresponding to a pattern name, a format of a pattern, and a combination mode among a plurality of patterns, and wherein, each pattern in the plurality of patterns has a pattern name; the terminal receiving key information input by a user through a full keyboard dialer, and determining whether input first key information is a number or a letter; and if the first key information is a letter, looking up an address book of the terminal according to the input key information to determine whether there is a contact person who satisfies a matching condition of the pattern information, and if yes, displaying the contact person who satisfies the matching condition of the pattern information on a terminal interface to be selected by the user for speed dialing. a terminal configuring pattern information of dialing, and establishing a correspondence between the pattern information and a contact person, wherein the pattern information comprises a letter key corresponding to a pattern name, a format of a pattern, and a combination mode among a plurality of patterns, and wherein, each pattern in the plurality of patterns has a pattern name; the terminal receiving key information input by a user through a full keyboard dialer, and determining whether input first key information is a number or a letter; and if the first key information is a letter, looking up an address book of the terminal according to the input key information to determine whether there is a contact person who satisfies a matching condition of the pattern information, and if yes, displaying the contact person who satisfies the matching condition of the pattern information on a terminal interface to be selected by the user for speed dialing.
Method of manufacturing a cable comprising the steps of - providing a flat cable made of a first metal material, - coating, in sections, the flat cable with a second metal material different from the first metal material, wherein between two sections with a coating there is a section without a coating, and - applying an insulating layer to the flat cable together with the coating wherein - the flat cable is fed in a continuous process to the steps of providing, coating and applying, characterized in that. - the coating is made by roll cladding, friction coating or powder coating, - providing a flat cable made of a first metal material, - coating, in sections, the flat cable with a second metal material different from the first metal material, wherein between two sections with a coating there is a section without a coating, and - applying an insulating layer to the flat cable together with the coating wherein - the flat cable is fed in a continuous process to the steps of providing, coating and applying, characterized in that. - the coating is made by roll cladding, friction coating or powder coating,
A wireless power supply system (100, 200, 300) comprising: a power transmitter (101, 201, 301); and a power receiver (103, 203, 303), the power transmitter comprising a power-transmitting coil (113, 213, 313) to which AC power of a frequency is input from a power source (111, 211, 311), and the power receiver comprising a power-receiving coil (121, 221, 321) magnetically coupled to the power-transmitting coil at a coupling coefficient, and a first power-receiving-side series element (123, 223, 323) coupled in series to the power-receiving coil and having imaginary impedance jZ S2i, characterized in that at least one of the frequency and the imaginary impedance is variable, the system is configured such that at least one of the frequency and the imaginary impedance are changed on the basis of satisfying the following formula so that an impedance when a power-receiving side is seen from the power source is independent of the coupling coefficient when the coupling coefficient changes, I 2 I 1 = L 1 L 2 where L 1 is self-inductance of the power-transmitting coil, L 2 is self-inductance of the power-receiving coil, I 1 is a current flowing through the power-transmitting coil, and I 2 is a current flowing through the power-receiving coil. a power transmitter (101, 201, 301); and a power receiver (103, 203, 303), the power transmitter comprising a power-transmitting coil (113, 213, 313) to which AC power of a frequency is input from a power source (111, 211, 311), and the power receiver comprising a power-receiving coil (121, 221, 321) magnetically coupled to the power-transmitting coil at a coupling coefficient, and a first power-receiving-side series element (123, 223, 323) coupled in series to the power-receiving coil and having imaginary impedance jZ S2i, characterized in that at least one of the frequency and the imaginary impedance is variable, the system is configured such that at least one of the frequency and the imaginary impedance are changed on the basis of satisfying the following formula so that an impedance when a power-receiving side is seen from the power source is independent of the coupling coefficient when the coupling coefficient changes, I 2 I 1 = L 1 L 2 where L 1 is self-inductance of the power-transmitting coil, L 2 is self-inductance of the power-receiving coil, I 1 is a current flowing through the power-transmitting coil, and I 2 is a current flowing through the power-receiving coil.
An underwater station including: flotation means located below the surface of the water; a seabed station positioned on the seabed, said flotation means being tethered to said seabed station; an acoustic transmitter means located on said flotation means for transmitting acoustic signals to a receiver of a ship and to other underwater stations; and a tracking means (12, 14) to determine the relative location of said flotation means relative to said seabed station. flotation means located below the surface of the water; a seabed station positioned on the seabed, said flotation means being tethered to said seabed station; an acoustic transmitter means located on said flotation means for transmitting acoustic signals to a receiver of a ship and to other underwater stations; and a tracking means (12, 14) to determine the relative location of said flotation means relative to said seabed station.