mhurhangee/ep-ind-claims huggingface dataset:
A computer program product tangibly embodied in an information carrier, the computer program product including instructions that, when executed, generate on a display device a backup graphical user interface comprising: a view display area that presents a current view of a window, an input control that, when selected, causes restoration of the window in accordance with a user-selected portion of an earlier version of the window, and the view display area further presents a plurality of snapshots (304a-d) that animatedly move in the view display area in response to user selection of one or more navigation tools (307a-b; 308a-b), wherein each snapshot as presented in the view display area (304a-d) includes a visual representation of the elements of a corresponding earlier version of the window, the earlier version of the window including one or more elements that are selectable by a user for restoration; and wherein a first snapshot of the plurality of snapshots includes a first element that a user can select, wherein selection of the first element triggers corresponding selection of that element in the displayed snapshots, and wherein selection of the input control, after selection of an element in a snapshot, causes restoration of the window with only that element in that snapshot being restored. a view display area that presents a current view of a window, an input control that, when selected, causes restoration of the window in accordance with a user-selected portion of an earlier version of the window, and the view display area further presents a plurality of snapshots (304a-d) that animatedly move in the view display area in response to user selection of one or more navigation tools (307a-b; 308a-b), wherein each snapshot as presented in the view display area (304a-d) includes a visual representation of the elements of a corresponding earlier version of the window, the earlier version of the window including one or more elements that are selectable by a user for restoration; and wherein a first snapshot of the plurality of snapshots includes a first element that a user can select, wherein selection of the first element triggers corresponding selection of that element in the displayed snapshots, and wherein selection of the input control, after selection of an element in a snapshot, causes restoration of the window with only that element in that snapshot being restored.
A drape to protect a medical equipment comprising: material of a select property having a select shape; at least one cuff formed along at least one edge of the material, the at least one cuff configured to allow manipulation of the drape by a user; and at least one adhesive strip configured to selectively adhere the drape to a surface to be covered by the drape, characterized in that the at least one cuff further comprises: a starting cuff configured and arranged to allow manipulation of the drape to a starting application location on the surface to be covered, and a first side cuff formed along a first side of the drape; and a second side cuff formed along a second side of the drape, the first and second side cuffs configured and arranged to allow manipulation of the drape about the surface the drape is to cover. material of a select property having a select shape; at least one cuff formed along at least one edge of the material, the at least one cuff configured to allow manipulation of the drape by a user; and at least one adhesive strip configured to selectively adhere the drape to a surface to be covered by the drape, characterized in that the at least one cuff further comprises: a starting cuff configured and arranged to allow manipulation of the drape to a starting application location on the surface to be covered, and a first side cuff formed along a first side of the drape; and a second side cuff formed along a second side of the drape, the first and second side cuffs configured and arranged to allow manipulation of the drape about the surface the drape is to cover. a starting cuff configured and arranged to allow manipulation of the drape to a starting application location on the surface to be covered, and a first side cuff formed along a first side of the drape; and a second side cuff formed along a second side of the drape, the first and second side cuffs configured and arranged to allow manipulation of the drape about the surface the drape is to cover.
An in vitro method for identifying a pathological condition associated with the FMR1, FMR4 and/or ASFMR1 genes in a mammalian subject including a human, said method comprising screening a cell from said subject for a change relative to a control in the extent of methylation within a region of the FMR genetic locus selected from: i. Fragile X-related Epigenetic Element 1 (FREE 1) comprising the nucleotide sequence set forth in SEQ ID NO: 16 or a homolog thereof defined by having at least 80% nucleotide sequence identity to SEQ ID NO: 16 or which hybridizes to SEQ ID NO: 16 or its complementary form under medium stringency conditions; and ii. Fragile X-related Epigenetic Element 2 (FREE2) comprising the nucleotide sequence set forth in SEQ ID NO: 17 or a homolog thereof defined by having at least 80% nucleotide sequence identity to SEQ ID NO: 17 or which hybridizes to SEQ ID NO: 17 or its complementary form under medium stringency conditions, wherein a change in extent of methylation relative to a control is indicative of the presence of the pathological condition or a propensity to develop same. i. Fragile X-related Epigenetic Element 1 (FREE 1) comprising the nucleotide sequence set forth in SEQ ID NO: 16 or a homolog thereof defined by having at least 80% nucleotide sequence identity to SEQ ID NO: 16 or which hybridizes to SEQ ID NO: 16 or its complementary form under medium stringency conditions; and ii. Fragile X-related Epigenetic Element 2 (FREE2) comprising the nucleotide sequence set forth in SEQ ID NO: 17 or a homolog thereof defined by having at least 80% nucleotide sequence identity to SEQ ID NO: 17 or which hybridizes to SEQ ID NO: 17 or its complementary form under medium stringency conditions, wherein a change in extent of methylation relative to a control is indicative of the presence of the pathological condition or a propensity to develop same.
A method for producing heart muscle cells (cardiomyocytes), comprising: - cultivating and differentiating stem cells obtained from differentiated exocrine gland tissue from the pancreas, a salivary gland or sweat gland of an organism, and - stimulation of the formation of the heart muscle cells by at least one of the following stimulation treatments: - co-culture with myocardial cells, - treatment with immobilised molecular growth or differentiation factors or with molecular growth or differentiation factors dissolved in a liquid. - cultivating and differentiating stem cells obtained from differentiated exocrine gland tissue from the pancreas, a salivary gland or sweat gland of an organism, and - stimulation of the formation of the heart muscle cells by at least one of the following stimulation treatments: - co-culture with myocardial cells, - treatment with immobilised molecular growth or differentiation factors or with molecular growth or differentiation factors dissolved in a liquid.
A conference terminal, comprising: a mark obtaining module, configured to obtain a mark data signal; an image obtaining module, configured to obtain an image data signal, a superimposing module, configured to superimpose the mark data signal onto the image data signal to generate a hybrid image data signal; and an outputting module, configured to output the hybrid image data signal; a first timer, configured to generate a first time interval value; and a second timer, configured to generate a second time interval value; wherein the mark obtaining module comprises a first mark obtaining module, configured to: obtain the mark data signal, output the mark data signal according to the first time interval value, and generate a first mark data signal for displaying on a local conference terminal; characterized in that the mark obtaining module further comprises a second mark obtaining module, configured to: obtain the mark data signal, output the mark data signal according to the second time interval value, and generate a second mark data signal for transmitting to a remote conference terminal or a conference server. a mark obtaining module, configured to obtain a mark data signal; an image obtaining module, configured to obtain an image data signal, a superimposing module, configured to superimpose the mark data signal onto the image data signal to generate a hybrid image data signal; and an outputting module, configured to output the hybrid image data signal; a first timer, configured to generate a first time interval value; and a second timer, configured to generate a second time interval value; wherein the mark obtaining module comprises a first mark obtaining module, configured to: obtain the mark data signal, output the mark data signal according to the first time interval value, and generate a first mark data signal for displaying on a local conference terminal; characterized in that the mark obtaining module further comprises a second mark obtaining module, configured to: obtain the mark data signal, output the mark data signal according to the second time interval value, and generate a second mark data signal for transmitting to a remote conference terminal or a conference server.
A method comprising: providing an annular electrode; providing a second electrode disposed within an interior of said annular electrode, said annular electrode and said second electrode defining a space therebetween; providing an electromagnet including a plurality of circumferential windings around said annular electrode; forming a high energy plasma within said space, and providing electrical current between said annular electrode and said second electrode and through said high energy plasma to maintain said high energy plasma; and generating with said electromagnet a vertical magnetic field which is used to confine the high energy plasma, and that permeates said space so as to cause the high energy plasma to rotate within said space, such that a net current established in the plasma generates a second magnetic field which is toroidal in shape around said high energy plasma and exists only outside the high energy plasma such that the high energy plasma is contained in the vertical direction by said second magnetic field and controlling the rotation of the high energy plasma by altering the first magnetic field by varying the voltage and current through the windings, so as to compress the high energy plasma in the vertical direction. providing an annular electrode; providing a second electrode disposed within an interior of said annular electrode, said annular electrode and said second electrode defining a space therebetween; providing an electromagnet including a plurality of circumferential windings around said annular electrode; forming a high energy plasma within said space, and providing electrical current between said annular electrode and said second electrode and through said high energy plasma to maintain said high energy plasma; and generating with said electromagnet a vertical magnetic field which is used to confine the high energy plasma, and that permeates said space so as to cause the high energy plasma to rotate within said space, such that a net current established in the plasma generates a second magnetic field which is toroidal in shape around said high energy plasma and exists only outside the high energy plasma such that the high energy plasma is contained in the vertical direction by said second magnetic field and controlling the rotation of the high energy plasma by altering the first magnetic field by varying the voltage and current through the windings, so as to compress the high energy plasma in the vertical direction.
Fuel filter device for an internal combustion engine, - with a ring filter element separating a dirty side from a clean side, - with a water separator configured as electric coalescer for separating water from the fuel, - wherein the water separator configured as electric coalescer is arranged on the clean side within the ring filter element and has two electrodes (10, 11) arranged coaxially with respect to the filter axis, of which at least one is insulated from the fuel, characterised in that - the outer electrode is arranged on the ring filter element, - the inner electrode is cylindrical or tubular in shape. - with a ring filter element separating a dirty side from a clean side, - with a water separator configured as electric coalescer for separating water from the fuel, - wherein the water separator configured as electric coalescer is arranged on the clean side within the ring filter element and has two electrodes (10, 11) arranged coaxially with respect to the filter axis, of which at least one is insulated from the fuel, - the outer electrode is arranged on the ring filter element, - the inner electrode is cylindrical or tubular in shape.
A method to control a once-through evaporator system with a plurality of once-through evaporator sections with a distribution valve, comprising: positioning a position controller in communication with each distribution valve; positioning a downstream temperature sensor and a temperature controller in communication with each position controller; each position controller determining a static head prediction and a required pressure drop over each distribution valve; each temperature controller providing a flow target to each position controller as a set point; the set point being based on an average of once-through evaporators section temperatures; characterized in biasing the set point by a dead band based on the average of once-through evaporator section temperatures with respect to an average saturation temperature. positioning a position controller in communication with each distribution valve; positioning a downstream temperature sensor and a temperature controller in communication with each position controller; each position controller determining a static head prediction and a required pressure drop over each distribution valve; each temperature controller providing a flow target to each position controller as a set point; the set point being based on an average of once-through evaporators section temperatures; characterized in biasing the set point by a dead band based on the average of once-through evaporator section temperatures with respect to an average saturation temperature.
A data bit error management method comprising: selecting a set of parity bit positions for parity bits to protect a set of data bits, each data bit having a data bit position in said data bit set, said number of parity bits being at least six; associating each data bit position with a different syndrome, each syndrome consisting of a sub-set of at least three parity bit positions, such that each said sub-set has at least one parity bit position shared with at least one other said sub-set; and calculating a parity bit value for each parity bit position from all data bit positions associated with said each parity bit position, wherein each data bit position is included in the calculation of 2n+1 parity bits or each data bit position is included in the calculation of 2n+2 parity bits, where n is a positive integer, wherein said sub-sets comprise sub-sets for at least n=1 and n=2, and wherein all possible syndromes having sub-sets where n=1 are associated with lower data bit positions than syndromes having sub-sets where n=2. selecting a set of parity bit positions for parity bits to protect a set of data bits, each data bit having a data bit position in said data bit set, said number of parity bits being at least six; associating each data bit position with a different syndrome, each syndrome consisting of a sub-set of at least three parity bit positions, such that each said sub-set has at least one parity bit position shared with at least one other said sub-set; and calculating a parity bit value for each parity bit position from all data bit positions associated with said each parity bit position,
A method for preparing 2,3-dichloropyridine, which comprises the following steps: chlorination: mixing the starting raw material 2,6-dichloropyridine with a catalyst, then warming up and introducing chlorine gas to chlorinate, when the reaction has finished, cooling and fractionating under reduced pressure to give 2,3,6-trichloropyridine; hydrogenation: adding 2,3,6-trichloropyridine gained by the chlorination, an acid-binding agent, a metal catalyst and organic solvent into a reactor, under the pressure range of 0∼10MPA, introducing hydrogen gas to hydrogenate after warming, when the pH value of the reaction solution has reached 4∼8, stopping introducing the hydrogen gas; the molar ratio of said 2,3,6-trichloropyridine to the acid-binding agent is 1:0.1∼0.5; post-processing: cooling the aforementioned reaction solution to room temperature, adding water to dissolve the hydrochloride of acid-binding agent, filtering, and layering the filtrate, separating the water layer, extracting the organic layer with aqueous acid at least three times, then combining the aqueous acid layer after the extraction and adding water to dilute, crystallizing, filtering to give wet 2,3-dichloropyridine, drying the wet product to give the product of 2,3-dichloropyridine. chlorination: mixing the starting raw material 2,6-dichloropyridine with a catalyst, then warming up and introducing chlorine gas to chlorinate, when the reaction has finished, cooling and fractionating under reduced pressure to give 2,3,6-trichloropyridine; hydrogenation: adding 2,3,6-trichloropyridine gained by the chlorination, an acid-binding agent, a metal catalyst and organic solvent into a reactor, under the pressure range of 0∼10MPA, introducing hydrogen gas to hydrogenate after warming, when the pH value of the reaction solution has reached 4∼8, stopping introducing the hydrogen gas; the molar ratio of said 2,3,6-trichloropyridine to the acid-binding agent is 1:0.1∼0.5; post-processing: cooling the aforementioned reaction solution to room temperature, adding water to dissolve the hydrochloride of acid-binding agent, filtering, and layering the filtrate, separating the water layer, extracting the organic layer with aqueous acid at least three times, then combining the aqueous acid layer after the extraction and adding water to dilute, crystallizing, filtering to give wet 2,3-dichloropyridine, drying the wet product to give the product of 2,3-dichloropyridine.
A wind turbine blade comprising a multilayer composite structure including a first reflective layer; a second layer spaced apart from said first layer, said second layer comprising a plurality of resistive circuit analogue elements; wherein said CA elements are tuned so as to interact with said first layer to provide absorption of electromagnetic energy over a desired frequency range; characterised in that said turbine blade includes a plurality of different regions, the spacing between the first and second layer being different in different regions, and wherein said CA elements are provided on cloth and have different geometries in said different regions.
An appliance, comprising: at least one processor; and at least one tangible computer readable medium accessible to the processor and storing executable instructions, which, when executed by the processor, cause the processor to instantiate a single virtual machine monitor, centralized control plane, VMM CPP configured to communicate with plural VMM data planes in a cluster of servers and to execute remotely from the plural VMM data planes, wherein each of the plural VMM data planes is hosted on a respective one of the servers, communicates with respective plural virtual machines, VM, on the respective server, and emulates software and forwarding hardware of a respective linecard of a modular Ethernet switch chassis interfacing the corresponding plural VMs to a network, wherein the VMM CCP emulates a supervisor module of a modular Ethernet switch chassis including the first and second linecards, and the appliance executes an instance of a data center-operating system, DC-OS program that spawns the VMM CCP, manages appliance, manages local communication interfaces that are not visible to the VMM CCP and manages communication with redundant appliance that includes at least one standby VMM CCP instance. at least one processor; and at least one tangible computer readable medium accessible to the processor and storing executable instructions, which, when executed by the processor, cause the processor to instantiate a single virtual machine monitor, centralized control plane, VMM CPP configured to communicate with plural VMM data planes in a cluster of servers and to execute remotely from the plural VMM data planes, wherein each of the plural VMM data planes is hosted on a respective one of the servers, communicates with respective plural virtual machines, VM, on the respective server, and emulates software and forwarding hardware of a respective linecard of a modular Ethernet switch chassis interfacing the corresponding plural VMs to a network, wherein the VMM CCP emulates a supervisor module of a modular Ethernet switch chassis including the first and second linecards, and the appliance executes an instance of a data center-operating system, DC-OS program that spawns the VMM CCP, manages appliance, manages local communication interfaces that are not visible to the VMM CCP and manages communication with redundant appliance that includes at least one standby VMM CCP instance.
An oscillator comprising a piezoelectric vibrator; a vibration member having one surface and the other surface opposite to said one surface, a plane direction being defined as being horizontal to said one surface, the vibration member being adapted to constrain the piezoelectric vibrator on said one surface thereof, while allowing the vibration member to vibrate in a vertical direction in association with an expansion and contraction vibration of the piezoelectric vibrator, characterized by: an elastic member that is provided on said one surface of the vibration member and/or said other surface of the vibration member and provided so as to be located between the piezoelectric vibrator and an edge of the vibration member when seen in a plan view; a fixing member that is provided on said one surface and/or said other surface of the vibration member and provided so as to be located between the piezoelectric vibrator and the elastic member when seen in a plan view; and a supporting member that supports, with respect to said one surface of the vibration member and/or said other surface of the vibration member, the vibration member through the elastic member and the fixing member, wherein the fixing member is bonded to the vibration member through an elastic material, and the elastic member is spaced from the fixing member and the elastic material. an elastic member that is provided on said one surface of the vibration member and/or said other surface of the vibration member and provided so as to be located between the piezoelectric vibrator and an edge of the vibration member when seen in a plan view; a fixing member that is provided on said one surface and/or said other surface of the vibration member and provided so as to be located between the piezoelectric vibrator and the elastic member when seen in a plan view; and a supporting member that supports, with respect to said one surface of the vibration member and/or said other surface of the vibration member, the vibration member through the elastic member and the fixing member, wherein the fixing member is bonded to the vibration member through an elastic material, and the elastic member is spaced from the fixing member and the elastic material.