mhurhangee/ep-ind-claims huggingface dataset:
Warm edge curtain kit for insulating glasses, comprising a lower spacer element, two side spacer elements and an upper spacer element, each made from a rigid tube of plastic material, connected together so as to define a closed structure adapted to be integrated in an insulating glass comprising two opposite panes of glass, a curtain group, comprising a box and a curtain body, housed inside said closed structure defined by said spacer elements (3a,3b,3c), said box comprising two opposite side walls defining an inner volume in which means for moving said curtain body are housed, wherein at least said upper spacer element comprises connection means to said box of said curtain group, wherein at least said upper spacer element comprises two respective side fins that respectively define its two opposite side faces for coupling with said two respective panes of glass, wherein each of said side fins has a respective metallic insert completely embedded inside said upper spacer element, and wherein said connection means are suitable for connecting said side fins with the side walls of said box.
An oligomerization tag for a recombinant fusion protein, the oligomerization tag comprising an immunoglobulin Fc region or a fragment thereof and a polyHis domain, wherein the polyHis domain contains 8, 9, 10, 11 or 12 histidine residues.
A shapeable or rigid structure for arrangement at a location or in an area and marking of the location or area in the human or animal body, having a physical manifestation to promote visual recognizability or recognizability in imaging techniques, the manifestation having a tubular hollow body, characterized in that the hollow body has a plurality of cavities formed by constrictions or indentations, the structure or the hollow body being formed from a material dissolvable or degradable in the human or animal body.
A system comprising: an insufflator configured to supply insufflation fluid to a patient cavity, the insufflator comprising a processor and a computer-readable media having logic stored thereon; an access port comprising a seal and a retractor, the access port facilitating access therethrough to the patient cavity; a primary pressure sensor in direct fluid connection with the patient cavity configured to determine a pressure measurement indicative of a pressure of the patient cavity; a trocar configured to: pierce the seal; receive the insufflation fluid supplied by the insufflator; and deliver the insufflation fluid to the patient cavity via the access port; wherein: the insufflator is communicatively coupled to the primary pressure sensor; and the logic stored on the computer-readable media is configured, when executed on the processor, to: receive the pressure measurement from the primary pressure sensor; and control the supply of the insufflation fluid to the patient based on the pressure measurement from the primary pressure sensor. an insufflator configured to supply insufflation fluid to a patient cavity, the insufflator comprising a processor and a computer-readable media having logic stored thereon; an access port comprising a seal and a retractor, the access port facilitating access therethrough to the patient cavity; a primary pressure sensor in direct fluid connection with the patient cavity configured to determine a pressure measurement indicative of a pressure of the patient cavity; a trocar configured to: pierce the seal; receive the insufflation fluid supplied by the insufflator; and deliver the insufflation fluid to the patient cavity via the access port; pierce the seal; receive the insufflation fluid supplied by the insufflator; and deliver the insufflation fluid to the patient cavity via the access port; wherein: the insufflator is communicatively coupled to the primary pressure sensor; and the logic stored on the computer-readable media is configured, when executed on the processor, to: receive the pressure measurement from the primary pressure sensor; and control the supply of the insufflation fluid to the patient based on the pressure measurement from the primary pressure sensor. the insufflator is communicatively coupled to the primary pressure sensor; and the logic stored on the computer-readable media is configured, when executed on the processor, to: receive the pressure measurement from the primary pressure sensor; and control the supply of the insufflation fluid to the patient based on the pressure measurement from the primary pressure sensor. receive the pressure measurement from the primary pressure sensor; and control the supply of the insufflation fluid to the patient based on the pressure measurement from the primary pressure sensor.
A method for the combustion of fuels, particularly waste, in which primary combustion gas is supplied into the fuel layer from below and secondary combustion gas is supplied to the exhaust gas stream above the fuel layer and is lowered when an increase occurs in the reaction rate or combustion intensity of oxygen mass of the primary combustion gas and the oxygen mass flow of the secondary combustion gas is increased, characterized in that in order to increase the oxygen mass flow in the secondary combustion gas, the ambient air or internal recirculation gas is added at an injection level at a height of roughly 6 to 9 metres above the grate, in such a manner that the dwell times of the exhaust gas from the combustion bed up to this level are 1 to 3 seconds.
An installation method for a refrigerant cycle apparatus including a first heat source unit, a utilization unit, and a connection pipe, the installation method comprising: a first refrigerant recovery step (S102, S202) of recovering a first refrigerant having a first GWP and at least one of flammability or toxicity from the first heat source unit; a second refrigerant recovery and regeneration step (S104, S204) of recovering a second refrigerant from an existing refrigerant cycle apparatus, and regenerating the second refrigerant, the existing refrigerant cycle apparatus including a second heat source unit, the utilization unit, and the connection pipe, and using the second refrigerant, the second refrigerant having a second GWP and at least one of non-flammability or non-toxicity; a disconnection step (S106, S206) of disconnecting the second heat source unit from the connection pipe of the existing refrigerant cycle apparatus; a connection step (S106, S206) of connecting the first heat source unit, from which the first refrigerant has been recovered, to the connection pipe to configure the refrigerant cycle apparatus; and a second refrigerant accommodation step (S107, S204, S207) of accommodating, in the first heat source unit, the second refrigerant recovered and regenerated from the existing refrigerant cycle apparatus (200, 300). a first refrigerant recovery step (S102, S202) of recovering a first refrigerant having a first GWP and at least one of flammability or toxicity from the first heat source unit; a second refrigerant recovery and regeneration step (S104, S204) of recovering a second refrigerant from an existing refrigerant cycle apparatus, and regenerating the second refrigerant, the existing refrigerant cycle apparatus including a second heat source unit, the utilization unit, and the connection pipe, and using the second refrigerant, the second refrigerant having a second GWP and at least one of non-flammability or non-toxicity; the existing refrigerant cycle apparatus including a second heat source unit, the utilization unit, and the connection pipe, and using the second refrigerant, the second refrigerant having a second GWP and at least one of non-flammability or non-toxicity; a disconnection step (S106, S206) of disconnecting the second heat source unit from the connection pipe of the existing refrigerant cycle apparatus; a connection step (S106, S206) of connecting the first heat source unit, from which the first refrigerant has been recovered, to the connection pipe to configure the refrigerant cycle apparatus; and a second refrigerant accommodation step (S107, S204, S207) of accommodating, in the first heat source unit, the second refrigerant recovered and regenerated from the existing refrigerant cycle apparatus (200, 300).
A working element comprising: a sample collection device for a fluid sample, the device comprising: a substantially disk-shaped body having a periphery; a capillary channel extending through the body and bounded by the periphery, having a first end and a second end, wherein the first end is adapted to draw the fluid into the channel by capillary action; and an axis of rotation extending through the center of the disk and which is substantially perpendicular to the major surface of the disk-shaped body; and a cartridge having a housing, wherein the sample collection device is rotatably positioned within the cartridge housing and wherein the sample collection device is adapted to have at least two different positions, a first dispense position wherein the first end of the capillary channel is positioned with the sample manipulating device or pre-manipulation portion, and a second position wherein the first end of the capillary channel is exposed to the outside environment. a sample collection device for a fluid sample, the device comprising: a substantially disk-shaped body having a periphery; a capillary channel extending through the body and bounded by the periphery, having a first end and a second end, wherein the first end is adapted to draw the fluid into the channel by capillary action; and an axis of rotation extending through the center of the disk and which is substantially perpendicular to the major surface of the disk-shaped body; and a substantially disk-shaped body having a periphery; a capillary channel extending through the body and bounded by the periphery, having a first end and a second end, wherein the first end is adapted to draw the fluid into the channel by capillary action; and an axis of rotation extending through the center of the disk and which is substantially perpendicular to the major surface of the disk-shaped body; and a cartridge having a housing, wherein the sample collection device is rotatably positioned within the cartridge housing and wherein the sample collection device is adapted to have at least two different positions, a first dispense position wherein the first end of the capillary channel is positioned with the sample manipulating device or pre-manipulation portion, and a second position wherein the first end of the capillary channel is exposed to the outside environment.
Hydraulic unit having a driving mechanism whose displacement volume is adjustable to two operational states through movement of a positionable adjustment element which itself can be positioned through movement of a servo piston of a servo unit into a first, initial position and a second, operated position, wherein a first front face of the servo piston opposes a second front face of the servo piston, wherein the first front face can be pressurized with pressurized hydraulic fluid for positioning the servo piston at one end of a servo cylinder of the servo unit, wherein the servo piston is of a stepped design thereby forming a ring-shaped damping surface opposing the first front face, wherein in the servo cylinder a ring-shaped shoulder surface is formed correspondingly and opposing the damping surface characterized in that a damping volume is formed in the servo cylinder by the damping surface, the shoulder surface and the servo cylinder, wherein the damping volume is drained via damping flow passages (19, 19') to a rear chamber of servo cylinder and subsequent to hydraulic reservoir or a tank or a sump.
Steam cleaner with a control device for controlling the discharge of steam, with a valve, which has a first inlet and an outlet as well as a rotatably mounted valve spindle, the through-flow quantity of steam from the first inlet to the outlet being adjustable depending on the rotational position of the valve spindle, characterized in that the control device comprises an electric switch, which is actuated by rotating the valve spindle, the steam cleaner being switched on and off by means of the switch, the switching position of the electric switch being changed by rotating the valve spindle in a first rotation angle range (a) and the through-flow quantity of steam being increasable up to a maximum steam through-flow quantity in an adjoining second rotation angle range (b).
Method for controlling vehicle speed in a vehicle equipped with cruise control when the vehicle is travelling downhill, which method comprises the steps of; - driving a vehicle downhill with the cruise control set to a first brake set speed (v S1) value; - detecting a current vehicle speed; - applying a brake torque using at least one auxiliary brake to maintain the first brake set speed (v S1), which brake torque is dependent on a currently engaged gear; - detecting a manual request for a downshift from a currently engaged gear to a lower gear, in order to decrease vehicle speed; - determining if a downshift is permissible at the current vehicle speed; and if a control unit determines that a downshift is not permissible, then the control unit is automatically arranged to perform the steps of: - applying a brake torque using at least a vehicle service brake (131, 132, 133) to retard the vehicle speed; - retarding the vehicle from a current, first vehicle speed to a lower, second vehicle speed at which a downshift to a lower gear is permissible; - performing a downshift to a lower gear when the second vehicle speed is reached; - setting the cruise control brake set speed to a second brake set speed (v S2) that is lower than the first cruise control brake set speed value; and - applying a brake torque using at least the auxiliary brake if a detected current vehicle speed exceeds the second brake set speed (v S2). - driving a vehicle downhill with the cruise control set to a first brake set speed (v S1) value; - detecting a current vehicle speed; - applying a brake torque using at least one auxiliary brake to maintain the first brake set speed (v S1), which brake torque is dependent on a currently engaged gear; - detecting a manual request for a downshift from a currently engaged gear to a lower gear, in order to decrease vehicle speed; - determining if a downshift is permissible at the current vehicle speed; and - applying a brake torque using at least a vehicle service brake (131, 132, 133) to retard the vehicle speed; - retarding the vehicle from a current, first vehicle speed to a lower, second vehicle speed at which a downshift to a lower gear is permissible; - performing a downshift to a lower gear when the second vehicle speed is reached; - setting the cruise control brake set speed to a second brake set speed (v S2) that is lower than the first cruise control brake set speed value; and - applying a brake torque using at least the auxiliary brake if a detected current vehicle speed exceeds the second brake set speed (v S2).
A process for the production of biogas in a solid fermenter (20, 22) in which stackable biomass can be flowed through by a percolate stream to produce biogas in a fermentation process, characterized in that the fermentation process is controlled by the quality of the biogas produced, wherein the fermentation process is controlled by controlling at least one operating parameter of the solid fermenter (20, 22), wherein as operating parameter the temperature in the solid fermenter (20, 22) is regulated by means of the percolate temperature, the heating temperature of the percolate, the percolate period, the percolate frequency, the amount of applied percolate and / or the pH of the percolate, and wherein the operating parameter serves as a actuating variable.
Method for covering a pipe portion of a pipe with the aid of a covering device that encompasses the pipe, in particular for covering a connection point of two or more media-conducting pipes, wherein, in order for a pipe sheathing to be formed, a number of covering elements that are interconnectable are assembled on the pipe; wherein an annular seal that bears on the pipe is push-fitted onto at least one end of the sheathing resulting from the assembled covering elements, on account of which the position of the sheathing on the pipe is established; and wherein, in order for the annular seal to be fixed to the sheathing, a closure ring that completely encompasses the sheathing is placed onto the connection region of the annular seal with the sheathing in such a manner that the closure ring contacts the annular seal as well as the sheathing.
A compound for inducing the death of a cancerous cell or for preventing or treating cancer, said compound comprising: a pro-oxidant moiety for (i) generating reactive oxygen species within mitochondria of a cancerous cell, (ii) inducing apoptosis of the cancerous cell, and (iii) interacting with mitochondrial complex II of the cancerous cell; and a delivery moiety for delivering the pro-oxidant moiety to the mitochondria of the cancerous cell, wherein said compound is selected from the group consisting of: and a pro-oxidant moiety for (i) generating reactive oxygen species within mitochondria of a cancerous cell, (ii) inducing apoptosis of the cancerous cell, and (iii) interacting with mitochondrial complex II of the cancerous cell; and a delivery moiety for delivering the pro-oxidant moiety to the mitochondria of the cancerous cell, wherein said compound is selected from the group consisting of: and
A method for allocating an Identifier, ID, of a data bearer, being applied to a terminal device and comprising: when receiving Data Radio Bearer, DRB, configuration information sent by a network side, allocating or reconfiguring, by the terminal device, a DRB ID, wherein the network side is applied to a dual connection system comprising: a Master Node, MN, and a Secondary Node, SN, and the SN is used for configuring a DRB ID; and sending, by the terminal device, a DRB configuration confirmation instruction to the network side, wherein the DRB configuration confirmation instruction comprises: an allocated DRB ID or a reconfigured DRB ID; wherein when receiving the DRB configuration information sent by the network side, allocating or reconfiguring, by the terminal device, the DRB ID comprises: when the DRB configuration information does not contain a DRB ID allocated by the network side, selecting one DRB ID from at least one available DRB ID as the allocated DRB ID; or, when the DRB configuration information contains a temporary DRB ID allocated by the network side, reselecting, by the terminal device, a DRB ID, and replacing, by the terminal device, the temporary DRB ID with the reselected DRB ID. when receiving Data Radio Bearer, DRB, configuration information sent by a network side, allocating or reconfiguring, by the terminal device, a DRB ID, wherein the network side is applied to a dual connection system comprising: a Master Node, MN, and a Secondary Node, SN, and the SN is used for configuring a DRB ID; and sending, by the terminal device, a DRB configuration confirmation instruction to the network side, wherein the DRB configuration confirmation instruction comprises: an allocated DRB ID or a reconfigured DRB ID; wherein when receiving the DRB configuration information sent by the network side, allocating or reconfiguring, by the terminal device, the DRB ID comprises: when the DRB configuration information does not contain a DRB ID allocated by the network side, selecting one DRB ID from at least one available DRB ID as the allocated DRB ID; or, when the DRB configuration information contains a temporary DRB ID allocated by the network side, reselecting, by the terminal device, a DRB ID, and replacing, by the terminal device, the temporary DRB ID with the reselected DRB ID.
A method of controlling an inverter supplying power to a permanent magnet AC, PMAC, motor having a plurality of phase windings (70, 72, 74), the method comprising: selecting a first phase winding of the PMAC motor; electrically connecting the first phase winding to a first DC terminal of a DC link circuit at a first time, and maintaining the connection between the first phase winding and the first DC terminal; determining a flux difference between the first phase winding and a second phase winding of the PMAC motor; selecting a second time, different to the first time, to electrically connect the second phase winding to the first DC terminal, wherein the second time is selected based on the determined flux difference between the first phase winding and the second phase winding; electrically connecting the second phase winding to the first DC terminal at the second time, and maintaining the connection between the second phase winding and the first DC terminal. selecting a first phase winding of the PMAC motor; electrically connecting the first phase winding to a first DC terminal of a DC link circuit at a first time, and maintaining the connection between the first phase winding and the first DC terminal; determining a flux difference between the first phase winding and a second phase winding of the PMAC motor; selecting a second time, different to the first time, to electrically connect the second phase winding to the first DC terminal, wherein the second time is selected based on the determined flux difference between the first phase winding and the second phase winding; electrically connecting the second phase winding to the first DC terminal at the second time, and maintaining the connection between the second phase winding and the first DC terminal.
High voltage three-phase cable comprising: - three cores positioned so as to assume the configuration with minimum radial dimension; and - a sheath surrounding the three cores; wherein each core comprises: - an electric conductor having a substantially triangular shaped cross-section with vertex portions (141, 142, 143) and edges (144, 145, 146); - an insulating system surrounding the electric conductor, the insulating system comprising an inner semiconducting layer surrounding the electric conductor, an insulating layer surrounding and in contact with the inner semiconducting layer and an outer semiconducting layer surrounding and in contact with the insulating layer, the layers (151, 152, 153) of the insulating system being made of an extruded polymeric material having a dielectric constant ε comprised from 2 to 2.5, the insulating system having a thickness variable around the electric conductor cross-section, the thickness of the insulating system being greater at the vertex portions (141, 142, 143) of the electric conductor cross-section than at the edges (144, 145, 146) thereof; and - a metallic screen surrounding the insulating system. - three cores positioned so as to assume the configuration with minimum radial dimension; and - a sheath surrounding the three cores; - an electric conductor having a substantially triangular shaped cross-section with vertex portions (141, 142, 143) and edges (144, 145, 146); - an insulating system surrounding the electric conductor, the insulating system comprising an inner semiconducting layer surrounding the electric conductor, an insulating layer surrounding and in contact with the inner semiconducting layer and an outer semiconducting layer surrounding and in contact with the insulating layer, the layers (151, 152, 153) of the insulating system being made of an extruded polymeric material having a dielectric constant ε comprised from 2 to 2.5, the insulating system having a thickness variable around the electric conductor cross-section, the thickness of the insulating system being greater at the vertex portions (141, 142, 143) of the electric conductor cross-section than at the edges (144, 145, 146) thereof; and - a metallic screen surrounding the insulating system.