mhurhangee/ep-ind-claims huggingface dataset:
A method of certificate-based access control in a managed wireless communication device, the method performed at the managed wireless communication device and comprising: storing a device management object in a memory of the managed wireless communication device, the device management object having a unique ID and one or more nodes associated with corresponding device management functions; establishing a secure device management session with a network server using a certificate of the network server; binding the certificate to the device management object at the managed wireless communication device, wherein binding the certificate to the device management object at the managed wireless communication device comprises: associating one or more management object IDs received in the certificate used to establish the communication session with a certificate ID of the certificate; and storing the association in the memory at the managed wireless communication device; receiving a device management command from the server to perform a device management function at the managed wireless communication device; and responsive to receiving the device management command, controlling the server's access to the device management object based on whether the certificate used to establish the communication session is bound to the device management object stored at the managed wireless communication device. storing a device management object in a memory of the managed wireless communication device, the device management object having a unique ID and one or more nodes associated with corresponding device management functions; establishing a secure device management session with a network server using a certificate of the network server; binding the certificate to the device management object at the managed wireless communication device, wherein binding the certificate to the device management object at the managed wireless communication device comprises: associating one or more management object IDs received in the certificate used to establish the communication session with a certificate ID of the certificate; and storing the association in the memory at the managed wireless communication device; associating one or more management object IDs received in the certificate used to establish the communication session with a certificate ID of the certificate; and storing the association in the memory at the managed wireless communication device; receiving a device management command from the server to perform a device management function at the managed wireless communication device; and responsive to receiving the device management command, controlling the server's access to the device management object based on whether the certificate used to establish the communication session is bound to the device management object stored at the managed wireless communication device.
A method, implemented by a wireless transmit receive unit, WTRU,, the method comprising: transmitting information on a primary uplink frequency on a serving cell; receiving information on a primary downlink frequency on the serving cell and at least one secondary downlink frequency on a secondary serving cell; receiving target cell pre-configuration information, wherein the target cell pre-configuration information includes high speed dedicated shared channel, HS-DSCH, configuration information for the at least one secondary downlink frequency; storing the target cell pre-configuration information; transmitting a measurement report with event 1D; monitoring control signals in a target cell. transmitting information on a primary uplink frequency on a serving cell; receiving information on a primary downlink frequency on the serving cell and at least one secondary downlink frequency on a secondary serving cell; receiving target cell pre-configuration information, wherein the target cell pre-configuration information includes high speed dedicated shared channel, HS-DSCH, configuration information for the at least one secondary downlink frequency; storing the target cell pre-configuration information; transmitting a measurement report with event 1D; monitoring control signals in a target cell.
A method for processing a radio link failure, comprising: under a specified state, after receiving a report of out of synchronization of a physical layer, a terminal device starting a delay timer, wherein, the specified state comprises a CELL_FACH state or an idle mode; the terminal device determining whether to process the radio link failure according to whether a synchronization indication of the physical layer is received before the delay timer expires. under a specified state, after receiving a report of out of synchronization of a physical layer, a terminal device starting a delay timer, wherein, the specified state comprises a CELL_FACH state or an idle mode; the terminal device determining whether to process the radio link failure according to whether a synchronization indication of the physical layer is received before the delay timer expires.
A piezoelectric device (50, 60, 70) that comprises at least one element that comprises at least one sheet of piezoelectric material defining an area, characterized in that: - the element has been mounted or placed on a circuit board (30, 78) comprising at least one conductive layer (51; 701, 702, 703, 704) with at least one opening (35, 37; 81, 82) in the conductive layer (51; 701, 702, 703, 704); - the element being located on the opening (35, 37; 81, 82) and supported by edges of said at least one opening (35, 37; 81, 82), in such a manner that the opening (35, 37; 81, 82) extends laterally beyond the area of the sheet of piezoelectric material; and - the element is sandwiched between an overlay and the circuit board (30, 78) in such a manner that vibrations of the sheet of piezoelectric material are sufficient to cause tactile vibration of the overlay. - the element has been mounted or placed on a circuit board (30, 78) comprising at least one conductive layer (51; 701, 702, 703, 704) with at least one opening (35, 37; 81, 82) in the conductive layer (51; 701, 702, 703, 704); - the element being located on the opening (35, 37; 81, 82) and supported by edges of said at least one opening (35, 37; 81, 82), in such a manner that the opening (35, 37; 81, 82) extends laterally beyond the area of the sheet of piezoelectric material; and - the element is sandwiched between an overlay and the circuit board (30, 78) in such a manner that vibrations of the sheet of piezoelectric material are sufficient to cause tactile vibration of the overlay.
A seat assembly comprising: a base frame; a seat body removably mounted on said base frame; a locking unit releasably interlocking said base frame and said seat body and being operable to lock said seat body relative to said base frame so that said seat body is placed in a locked state, where said seat body is irremovable from said base frame, or to unlock said seat body relative to said base frame so that said seat body is placed in an unlocked state, where said seat body is removable from said base frame; and an unlocked-state retention device to push and separate said seat body from said base frame and to thereby prevent said seat body from moving to the locked state when said seat body is unlocked relative to said base frame; characterized in that said unlocked-state retention device includes a pusher that is disposed movably in said seat body, and that includes a push member to retractably project from a bottom surface of said seat body and to push an upper surface of said base frame so as to separate said base frame and said seat body from each other when said seat body is in the unlocked state. a base frame; a seat body removably mounted on said base frame; a locking unit releasably interlocking said base frame and said seat body and being operable to lock said seat body relative to said base frame so that said seat body is placed in a locked state, where said seat body is irremovable from said base frame, or to unlock said seat body relative to said base frame so that said seat body is placed in an unlocked state, where said seat body is removable from said base frame; and an unlocked-state retention device to push and separate said seat body from said base frame and to thereby prevent said seat body from moving to the locked state when said seat body is unlocked relative to said base frame; characterized in that said unlocked-state retention device includes a pusher that is disposed movably in said seat body, and that includes a push member to retractably project from a bottom surface of said seat body and to push an upper surface of said base frame so as to separate said base frame and said seat body from each other when said seat body is in the unlocked state.
An apparatus, comprising: a complementary metal oxide semiconductor, CMOS, wafer having an integrated circuit, IC, formed therein; a membrane disposed above and covering a cavity in the CMOS wafer, the membrane having a first side proximate the cavity and a second side distal the cavity; and a conductive electrical path contacting the first side of the membrane proximate the cavity and electrically connecting the membrane to the IC; characterized in that it further comprises: an insulating layer on the CMOS; and wherein the cavity is defined in the insulating layer so that the cavity has a non-conductive sidewall, and wherein the conductive electrical path comprises a conductive plug embedded in a via in the non-conductive sidewall; and wherein the plug is in direct contact with the first side of the membrane. a complementary metal oxide semiconductor, CMOS, wafer having an integrated circuit, IC, formed therein; a membrane disposed above and covering a cavity in the CMOS wafer, the membrane having a first side proximate the cavity and a second side distal the cavity; and a conductive electrical path contacting the first side of the membrane proximate the cavity and electrically connecting the membrane to the IC; characterized in that it further comprises: an insulating layer on the CMOS; and wherein the cavity is defined in the insulating layer so that the cavity has a non-conductive sidewall, and wherein the conductive electrical path comprises a conductive plug embedded in a via in the non-conductive sidewall; an insulating layer on the CMOS; and wherein the cavity is defined in the insulating layer so that the cavity has a non-conductive sidewall, and wherein the conductive electrical path comprises a conductive plug embedded in a via in the non-conductive sidewall; and wherein the plug is in direct contact with the first side of the membrane.
A method of improving the expression of a recombinant peptide in Pichia pastoris by controlling the critical nutrient ratio of residual carbon to residual nitrogen nutrients in the broth, wherein the CNR is dynamically calculated as the ratio of the methanol concentration to the ammonia concentration in the broth, wherein the CNR is being controlled as suggested by a mathematical comprehensive model, and wherein the CNR is being controlled by feeding ammonium sulphate (70 % w/v), methanol (94 % v/v) and urea (50 % w/w), and wherein a fractional/decimal value of the CNR falls in the range of 0.01 to 0.15, wherein methanol is employed at a concentration of less than or equal to 5 g/1, and ammonium sulphate or ammonium hydroxide is employed at a concentration in the range from 1 g/l to 5 g/l, and wherein soya flour hydrolysate (16% w/v) and EDTA (16% w/v) are used for controlling protein degradation as required from the degradation profile of the product, wherein the mathematical comprehensive model is a fed batch model, wherein the cumulative impact of CNR, EDTA and soya flour hydrolysate on the protease activity is incorporated as follows: K id = kpid ∗ Ei ∗ k I 1 k I 1 + I 1 ∗ k I 2 k I 2 + I 2 K ed = kped ∗ E e ∗ k I 1 k I 1 + I 1 ∗ k I 2 k I 2 + I 2 wherein kpid and kped are the molecule specific intracellular and extracellular degradation constant in grams of peptide degraded per unit activity per h, k I 1 and k I 2 are respective inhibition constants as determined by an inhibition study done on broth samples, wherein E e is the extracellular protease concentration in units per gram of supernatant, and E i is the net intracellular protease concentration in units per gram of biomass, and wherein the productivity of E i is modelled as: 1 X ∗ d E i ∗ X dt = r idmax ∗ CNR K Mid + CNR d E i dt + E i ∗ μ − r idmax ∗ CNR K Mid + CNR = 0 wherein X is the total biomass in kg, μ is the specific growth rate, r idmax denotes the maximum productivity of intracellular proteases in units per gram of biomass per h, k Mid is the affinity constant of the affinity of the intracellular proteases to the recombinant peptide, and the dynamic release of proteases from biomass is modelled as d V ∗ 1000 − x 1000 ∗ E e dt = k es ∗ X + d 1 − v ∗ X dt ∗ E i wherein k es is the rate of continuous release of proteases from cells in units per gram of biomass per h, x is the concentration of biomass in g L -1, and υ denotes actual fractional viability of the cells.
Packaging for cargo, preferably for a household appliance and in particular for a refrigerator and/or freezer, with at least one base pad arranged at the bottom and/or with at least one ceiling pad arranged at the top and with at least one tensioning strap, wherein the base pad and/or the ceiling pad at least sectionally is configured with strength increasing means in the region or the regions in which the same is in contact with the tensioning strap and/or wherein means are provided which at least sectionally prevent a direct contact between the base pad and/or the ceiling pad and the tensioning strap, wherein the means are formed by a tray in which the base and/or ceiling pad (10, 20) is located, wherein the tray is designed as deep-drawn component or as injection-molded part, characterized in that the tray includes one or more apertures and that the base and/or the ceiling pad (10, 20) partly extends through these apertures.
Machine for machining large shafts with eccentric portions, said large shafts being shafts having a length of at least four meters and/or a weight of more than five tonnes, said machine comprising a first support and a second support, said first support being configured to support a first journal of the large shaft with eccentric portions, and said second support being configured to support a second journal of the large shaft with eccentric portions, the machine additionally comprising at least one third support configured to support a third journal of the large shaft with eccentric portions, said third support comprising a supporting element (30, 300) configured so that said third journal is left resting on said supporting element when the large shaft with eccentric portions is placed in the machine, characterised in that said supporting element (30, 300) is configured in a laterally displaceable manner, so that it moves laterally, transversally with respect to a longitudinal axis of the large shaft with eccentric portions, with the third journal when the third journal moves laterally during the rotation of the large shaft with eccentric portions around its longitudinal axis.
Method for connecting at least two sheet-metal parts (1, 5), in which an embossing element is attached to the first sheet-metal part, and the embossing element attached to the first sheet-metal part is then welded to the second sheet-metal part, characterized in that, in order to attach the first sheet-metal part, the embossing element is pressed into the material of the first sheet-metal part in a deep-drawing process in a deep-drawing direction, and a positive connection is established with the first sheet-metal part by plastic deformation, wherein the welding takes place by means of spot welding with spot-welding electrodes (35, 36), and wherein the attachment of the embossing element to the first sheet-metal part takes place in a deep-drawing tool, which has a die in the recess of which the first sheet-metal part is deep drawn, and has a pressing tappet which presses the embossing element into the first sheet-metal part, whereby the deep-drawing process takes place, wherein, during embossing, an element contour protruding from the sheet-metal material is generated via a corresponding embossing contour of the embossing stamp front face, and wherein, during the welding process, the spot-welding electrodes (35, 36) are attached to the side, facing away from the embossing element, of the first sheet-metal part and of the second sheet-metal part.
Single device for shifting gears on a bicycle equipped with chainwheels and sprockets, a chain stretched between these chainwheels and sprockets, and a rear derailleur DR, said single device for shifting gears comprising a single casing which comprises: - means for changing chainwheels, comprising a chainwheel drum rotatably mounted about an axis XX', a track having an established profile formed in said drum, a drive finger capable of following the profile of said track, this finger being rigidly connected to a shaft carrying a fork which is capable of receiving the chain and causing the shifting of said chain from one chainwheel to another, - means for changing sprockets via the rear derailleur DR, and - means for controlling said means for changing chainwheels and said means for changing sprockets. - means for changing chainwheels, comprising a chainwheel drum rotatably mounted about an axis XX', a track having an established profile formed in said drum, a drive finger capable of following the profile of said track, this finger being rigidly connected to a shaft carrying a fork which is capable of receiving the chain and causing the shifting of said chain from one chainwheel to another, - means for changing sprockets via the rear derailleur DR, and - means for controlling said means for changing chainwheels and said means for changing sprockets.
A method for culturing a suspension of immortalized human blood cells of myeloid leukaemia origin or cells derived therefrom, wherein said suspension is agitated such that the resulting specific power input is at least 0.005 W/kg.
A solar cell, comprising: a substrate having a first surface and a second surface opposite to each other in a first direction, wherein the first direction is a thickness direction of the substrate; a tunnel oxide layer located on the first surface and/or the second surface; a doped polysilicon layer located on a surface of the tunnel oxide layer away from the substrate; a barrier layer located in an electrode region of the solar cell and in contact with the doped polysilicon layer, wherein a doping type of the barrier layer is the same as the doped polysilicon layer; an electrode located in the electrode region and in contact with the barrier layer; characterized in that a method of forming the barrier layer includes etching the doped polysilicon layer in the electrode region in the first direction to form a groove with a predetermined depth, and forming the barrier layer in the groove, wherein the predetermined depth is equal to or less than a thickness of the doped polysilicon layer, a material of the barrier layer includes silicon carbide and/or zinc oxide. a substrate having a first surface and a second surface opposite to each other in a first direction, wherein the first direction is a thickness direction of the substrate; a tunnel oxide layer located on the first surface and/or the second surface; a doped polysilicon layer located on a surface of the tunnel oxide layer away from the substrate; a barrier layer located in an electrode region of the solar cell and in contact with the doped polysilicon layer, wherein a doping type of the barrier layer is the same as the doped polysilicon layer; an electrode located in the electrode region and in contact with the barrier layer; characterized in that a method of forming the barrier layer includes etching the doped polysilicon layer in the electrode region in the first direction to form a groove with a predetermined depth, and forming the barrier layer in the groove, wherein the predetermined depth is equal to or less than a thickness of the doped polysilicon layer, a material of the barrier layer includes silicon carbide and/or zinc oxide.
A method for operating a pasteurizing system, with the pasteurizing system comprising a primary circuit for a medium to be pasteurized and a secondary circuit, the secondary circuit serving as a heating circuit to heat the medium to be pasteurized in the primary circuit, the method comprising the steps of: - operating the primary circuit and the secondary circuit, wherein the medium to be pasteurized flows in the primary circuit, and wherein a heating means flows in the secondary circuit; - discharging the medium to be pasteurized out of the primary circuit by means of a liquid which is introduced into the primary circuit; characterized by - stopping the flow of the liquid in the primary circuit after the primary circuit has been filled with the liquid; and - maintaining the flow of the heating means in the secondary circuit after the flow of the liquid (water or medium to be pasteurized) has been stopped in the primary circuit until and after resumption of the flow of the liquid in the primary circuit, wherein a temperature of a first heat exchanger is determined, the first heat exchanger permitting thermal contact between the primary circuit and the secondary circuit and wherein the temperature of the first heat exchanger is raised as a function of the standstill time of the primary circuit or the temperature in the heat holding path. - operating the primary circuit and the secondary circuit, wherein the medium to be pasteurized flows in the primary circuit, and wherein a heating means flows in the secondary circuit; - discharging the medium to be pasteurized out of the primary circuit by means of a liquid which is introduced into the primary circuit; characterized by - stopping the flow of the liquid in the primary circuit after the primary circuit has been filled with the liquid; and - maintaining the flow of the heating means in the secondary circuit after the flow of the liquid (water or medium to be pasteurized) has been stopped in the primary circuit until and after resumption of the flow of the liquid in the primary circuit,
A responsive coated particle comprising at least one particle comprising an interfacial surface to which a responsive coating attaches, said responsive coating comprising: a. at least one silicone-based, hydrophobic polymer; and b. at least one hydrophilic polymer and said responsive coating allowing said responsive coated particle to switch from a first state, which is either hydrophilic or hydrophobic, to a second state, which is respectively the other alternative, either hydrophobic or hydrophilic, to said first state and wherein said responsive coated particle is in a first state and wherein the responsive coated particle has a size from 1nm to 1μm. a. at least one silicone-based, hydrophobic polymer; and b. at least one hydrophilic polymer and said responsive coating allowing said responsive coated particle to switch from a first state, which is either hydrophilic or hydrophobic, to a second state, which is respectively the other alternative, either hydrophobic or hydrophilic, to said first state and wherein said responsive coated particle is in a first state and wherein the responsive coated particle has a size from 1nm to 1μm.
An assembly for the connection of sections of a conduit, with a tube section and a connection means (3, 4, 5, 9, 11), which is releasably connected with the tube section and which is permanently connected with one end of a hose (1, 8), wherein the tube section comprises a collar and a tube casing, wherein the collar protrudes outwards radially over the tube casing, wherein the tube casing is made of one part, wherein the collar is arranged on the tube casing at a distance from one end of the tube casing and wherein the end of the tube casing and a section of the tube casing extending from the end of the tube casing up to the collar is pushed into the connection means, characterized in that the collar and the tube casing are two interconnected parts.