mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a display; and a substrate comprising at least one bendable portion configured to enable the substrate to be moved between an open configuration and a closed configuration; and wherein the at least one bendable portion comprises a plurality of rod members and the rod members comprise interlocking portions wherein the interlocking portions comprise a projection configured to fit into a corresponding recess on an adjacent rod member so as to restrict relative movement of the rod members when the substrate is in the closed configuration; wherein the substrate is configured to support the display; characterized in that the display is bendable; and in that upper portions of the plurality of rod members stay adjacent to each other in both the open and closed configuration and form a flat surface in the open configuration, the upper portions being on the side of the bendable portion supporting the bendable display. a display; and a substrate comprising at least one bendable portion configured to enable the substrate to be moved between an open configuration and a closed configuration; and wherein the at least one bendable portion comprises a plurality of rod members and the rod members comprise interlocking portions wherein the interlocking portions comprise a projection configured to fit into a corresponding recess on an adjacent rod member so as to restrict relative movement of the rod members when the substrate is in the closed configuration; wherein the substrate is configured to support the display; characterized in that the display is bendable; and in that upper portions of the plurality of rod members stay adjacent to each other in both the open and closed configuration and form a flat surface in the open configuration, the upper portions being on the side of the bendable portion supporting the bendable display.
A method for classifying a tissue sample obtained from a tumour, comprising - determining a stiffness value for each of a plurality of points on said sample with a spatial resolution of at least 100 μm, resulting in a stiffness distribution, - assigning a probability of malignancy to said sample, wherein a sample exhibiting a heterogeneous stiffness distribution having a frequency maximum below 1 kPa, is assigned a high probability of being malignant, wherein the heterogeneous stiffness distribution is an n-modal distribution having n maxima with n being an integer > 1, wherein - said method is applied to a first sample and a second sample, said first sample is a primary tumour sample, and said second sample is a sample taken from a lymph node adjacent to said sampling site of said first sample or an axillary lymph node, and - said second sample is classified as a lymph node metastasis if said first sample and said second sample both show a heterogeneous stiffness distribution having a frequency maximum below 1kPa, wherein the heterogeneous stiffness distribution is an n-modal distribution having n maxima with n being an integer > 1, and the frequency maximum of the second sample is the same as the frequency maximum of the first sample, wherein the stiffness value of the frequency maximum of the second sample is the same as the stiffness value of the of the frequency maximum of the first sample. - determining a stiffness value for each of a plurality of points on said sample with a spatial resolution of at least 100 μm, resulting in a stiffness distribution, - assigning a probability of malignancy to said sample, wherein a sample exhibiting a heterogeneous stiffness distribution having a frequency maximum below 1 kPa, is assigned a high probability of being malignant, wherein the heterogeneous stiffness distribution is an n-modal distribution having n maxima with n being an integer > 1, wherein - said method is applied to a first sample and a second sample, said first sample is a primary tumour sample, and said second sample is a sample taken from a lymph node adjacent to said sampling site of said first sample or an axillary lymph node, and - said second sample is classified as a lymph node metastasis if said first sample and said second sample both show a heterogeneous stiffness distribution having a frequency maximum below 1kPa, wherein the heterogeneous stiffness distribution is an n-modal distribution having n maxima with n being an integer > 1, and the frequency maximum of the second sample is the same as the frequency maximum of the first sample, wherein the stiffness value of the frequency maximum of the second sample is the same as the stiffness value of the of the frequency maximum of the first sample.
A method for communicating with a legacy terminal supporting a legacy air interface and a new terminal supporting a next generation air interface, the method comprising: assigning a same carrier to the legacy terminal and the new terminal; receiving a terminal identifier and an optional payload for transmission at a Media Access Layer/Radio Link Control "MAC/RLC" layer; determining if the terminal identifier is associated with the legacy terminal or the new terminal; composing, based on the determining, a burst header; and formatting a burst comprising the burst header and the optional payload; and transmitting the burst, wherein the legacy air interface defines one or more valid burst headers and one or more undefined burst headers, the burst header is set to one of the one or more valid burst headers when the burst is associated with the legacy terminal, and the burst header is set to one of the one or more undefined burst headers when the burst is associated with the new terminal, wherein at least one of the one or more undefined burst headers identifies a Modulation and Coding Scheme "MCS" unsupported by the legacy air interface. assigning a same carrier to the legacy terminal and the new terminal; receiving a terminal identifier and an optional payload for transmission at a Media Access Layer/Radio Link Control "MAC/RLC" layer; determining if the terminal identifier is associated with the legacy terminal or the new terminal; composing, based on the determining, a burst header; and formatting a burst comprising the burst header and the optional payload; and transmitting the burst, wherein the legacy air interface defines one or more valid burst headers and one or more undefined burst headers, the burst header is set to one of the one or more valid burst headers when the burst is associated with the legacy terminal, and the burst header is set to one of the one or more undefined burst headers when the burst is associated with the new terminal, wherein at least one of the one or more undefined burst headers identifies a Modulation and Coding Scheme "MCS" unsupported by the legacy air interface.
A dynamic orthosis (1, 101) including: - a foot sole (7, 107), - a leg bracelet (2, 102), the sole and the bracelet being connected to each other by a structure, the structure including an elastic actuator (12, 112) rearwardly offset from the leg and foot, an axial extension of said actuator allowing the foot sole to pivot about a joint of a patient's ankle, an upper part of the actuator being connected to the bracelet by an anchoring piece and a lower part of the actuator being connected to the bracelet by an attaching collar, the orthosis being characterized in that a clearance is contained between the collar and said lower part, in a plane passing through the axis of the actuator and parallel to a walking axis of the patient, said clearance allowing the actuator to slightly move with respect to the patient's leg, according to the walking motions. - a foot sole (7, 107), - a leg bracelet (2, 102),
A method for preparing a crystal of sodium diacetate comprising the steps of: mixing acetic acid and sodium acetate in the molar ratio of from 1.5:1 to 1:2 (acetic acid: sodium acetate), adding 0 to 2 wt % of water to the mixture, wherein said amount is based on the total weight of the mixture, heating the mixture to 130 to 250 oC to dissolve it, and cooling the mixture, optionally with addition of a seed crystal after cooling. mixing acetic acid and sodium acetate in the molar ratio of from 1.5:1 to 1:2 (acetic acid: sodium acetate), adding 0 to 2 wt % of water to the mixture, wherein said amount is based on the total weight of the mixture, heating the mixture to 130 to 250 oC to dissolve it, and cooling the mixture, optionally with addition of a seed crystal after cooling.
A system for dissociating a sheet-shaped cell culture into individual cells, comprising: (i) a reaction unit which dissociates the sheet-shaped cell culture, including a reaction vessel and a support unit; (ii) a sensor unit which acquires information about a particle size distribution of cells existing in the reaction unit by an image analysis method using a CCD camera alone or combined with a microscope, a laser diffraction scattering method using a laser beam, an electrical sensing zone method using a small aperture, or a combination thereof; and (iii) an analysis unit which calculates the particle size distribution of cells from the information acquired by the sensor unit, thereby determining and outputting a state of dissociation; (iv) a reaction control unit which controls the dissociation of cells in the reaction unit, the reaction control unit comprising a mechanical action control unit, a chemical action control unit and an environment control unit, wherein the chemical action control unit can adjust the amount of liquid in the reaction vessel to prevent cells from planarly overlapping with one another, wherein the amount of liquid in in the reaction vessel is measured by a level sensor or a weight sensor; wherein the system is automatized. (i) a reaction unit which dissociates the sheet-shaped cell culture, including a reaction vessel and a support unit; (ii) a sensor unit which acquires information about a particle size distribution of cells existing in the reaction unit by an image analysis method using a CCD camera alone or combined with a microscope, a laser diffraction scattering method using a laser beam, an electrical sensing zone method using a small aperture, or a combination thereof; and (iii) an analysis unit which calculates the particle size distribution of cells from the information acquired by the sensor unit, thereby determining and outputting a state of dissociation; (iv) a reaction control unit which controls the dissociation of cells in the reaction unit, the reaction control unit comprising a mechanical action control unit, a chemical action control unit and an environment control unit, wherein the chemical action control unit can adjust the amount of liquid in the reaction vessel to prevent cells from planarly overlapping with one another, wherein the amount of liquid in in the reaction vessel is measured by a level sensor or a weight sensor;
A method for aligning sequence reads to a reference sequence, the method comprising: aligning a first set of sequence reads from an entire population of sequence reads to a reference sequence with a Burrows-Wheeler transform using a first seed length, wherein the first seed length is selected based on an error rate of the sequence reads; masking the first set of sequence reads such that the entire population of sequence reads comprises a subset of masked sequence reads and unmasked sequence reads; aligning a second set of sequence reads from the unmasked sequence reads to the reference sequence with the Burrow-Wheeler transform using a second seed length, wherein the second seed length is smaller than the first seed length; determining an alignment of the sequence reads to the reference sequence based on the first set of sequence reads and the second set of sequence reads; and wherein the method further comprises: iteratively masking and aligning additional sets of sequence reads with each subsequent set of reads having a smaller seed length, and determining the alignment of the sequence reads with the additional sets of sequence reads. aligning a first set of sequence reads from an entire population of sequence reads to a reference sequence with a Burrows-Wheeler transform using a first seed length, wherein the first seed length is selected based on an error rate of the sequence reads; masking the first set of sequence reads such that the entire population of sequence reads comprises a subset of masked sequence reads and unmasked sequence reads; aligning a second set of sequence reads from the unmasked sequence reads to the reference sequence with the Burrow-Wheeler transform using a second seed length, wherein the second seed length is smaller than the first seed length; determining an alignment of the sequence reads to the reference sequence based on the first set of sequence reads and the second set of sequence reads; and wherein the method further comprises: iteratively masking and aligning additional sets of sequence reads with each subsequent set of reads having a smaller seed length, and determining the alignment of the sequence reads with the additional sets of sequence reads.
A stretchable display device (600, 800, 1000, 1200, 1300, 1400, 1500), comprising: a lower substrate made of a stretchable insulating material and having an active area and a non-active area adjacent to the active area; a plurality of individual substrates spaced apart from each other and disposed in the active area of the lower substrate; pixels disposed on the plurality of individual substrates respectively; and a plurality of connecting lines (680, 880) disposed between the plurality of individual substrates on the lower substrate, and electrically connecting corresponding pads disposed within the plurality of individual substrates respectively, wherein the modulus of elasticity of the plurality of individual substrates is higher than that of the lower substrate, wherein the active area of the lower substrate is divided into a plurality of first areas in which the plurality of individual substrates are disposed, a plurality of second areas in which the connecting lines (680, 880) are disposed, and a plurality of third areas surrounded by the plurality of first areas and the plurality of second areas, wherein top surfaces of the third areas of the lower substrate have an uneven shape, and top surfaces of the first areas of the lower substrate have a flat shape, and wherein a plurality of additional pixels is formed in the plurality of third areas of the lower substrate respectively. a lower substrate made of a stretchable insulating material and having an active area and a non-active area adjacent to the active area; a plurality of individual substrates spaced apart from each other and disposed in the active area of the lower substrate; pixels disposed on the plurality of individual substrates respectively; and a plurality of connecting lines (680, 880) disposed between the plurality of individual substrates on the lower substrate, and electrically connecting corresponding pads disposed within the plurality of individual substrates respectively, wherein the modulus of elasticity of the plurality of individual substrates is higher than that of the lower substrate, wherein the active area of the lower substrate is divided into a plurality of first areas in which the plurality of individual substrates are disposed, a plurality of second areas in which the connecting lines (680, 880) are disposed, and a plurality of third areas surrounded by the plurality of first areas and the plurality of second areas, wherein top surfaces of the third areas of the lower substrate have an uneven shape, and top surfaces of the first areas of the lower substrate have a flat shape, and wherein a plurality of additional pixels is formed in the plurality of third areas of the lower substrate respectively.
Locking module of an arming system provided with an accumulation means configured to release a mechanical energy when switching from an armed state to a disarmed state, the module comprising: - a lever pivot-linked around a first pivot shaft, and which comprises a first end and a second end, the second end comprising a surface, called bearing surface, which has a width, called bearing width, the accumulation means being able to exert a thrust force on the first end when it is in the armed state; - a lock element configured to adopt either one of two positions called, respectively, first position and second position, the first position corresponding to a position for which the bearing surface is bearing against a contact surface of the lock element so as to oppose any rotation of the lever due to the thrust force and to maintain the accumulation means in the armed state, the second position corresponding to a retraction of the contact surface so as to allow the accumulation means to switch from the armed state to the unarmed state; the module being characterised in that a shoe, made of a metal strip and fixed to the lever, is interposed between the bearing surface and the contact surface when the bearing surface bears against the contact surface, a surface portion of the shoe, called secondary surface, being in contact with the contact surface, said secondary surface having a width, called the shoe width, greater than the bearing width. - a lever pivot-linked around a first pivot shaft, and which comprises a first end and a second end, the second end comprising a surface, called bearing surface, which has a width, called bearing width, the accumulation means being able to exert a thrust force on the first end when it is in the armed state; - a lock element configured to adopt either one of two positions called, respectively, first position and second position, the first position corresponding to a position for which the bearing surface is bearing against a contact surface of the lock element so as to oppose any rotation of the lever due to the thrust force and to maintain the accumulation means in the armed state, the second position corresponding to a retraction of the contact surface so as to allow the accumulation means to switch from the armed state to the unarmed state;
Dust removal installation for cleaning air laden with particles, for example welding fume or laser smoke, comprising a housing which is delimited by housing walls, has a crude gas inlet opening and a clean gas outlet opening, and is divided into a crude gas chamber and a clean gas chamber by a filter assembly, wherein the filter assembly comprises a support plate and a plurality of filter elements which are connected to the support plate, are in the form of self-supporting cylindrical filter cartridges with an open end and a closed end and are each detachably mounted, with their open end upright, on an opening provided for this purpose in the support plate, and wherein a flow distribution device is placed between the crude gas inlet opening and the filter assembly such that a crude gas flow entering through the crude gas inlet opening is decelerated and at the same time distributed, wherein the flow distribution device comprises a baffle plate which is transverse to the flow direction of a crude gas flow entering the housing and extends towards the housing walls of the housing with formation of a peripheral gap.
Rechargeable lithium battery cell having a housing, a positive electrode, a negative electrode, and an electrolyte which is based on SO 2 and contains a conducting salt, wherein at least one of the electrodes has an active material and is an insertion electrode suitable for receiving lithium ions, which insertion electrode contains a current collector element made of metal which is in contact with the active material of the electrode and wherein the active material is present in a form suitable for receiving lithium ions and has been subjected to covering-layer-reducing pre-treatment.
A hot dip galvanized steel sheet comprising a steel sheet which contains, by mass%, C: 0.05% to 0.50%, Si: 0.1% to 3.0%, Mn: 0.5% to 5.0%, P: 0.001% to 0.5%, S: 0.001% to 0.03%, Al: 0.005% to 1.0%, optionally one or more elements of Ti, Nb, Cr, Mo, Ni, Cu, Zr, V, W, B, Ca, and REM in respectively 0.0001 % to 1%, and a balance of Fe and unavoidable impurities, having a hot dip galvanized layer A on the surface of said steel sheet, characterized by having the following B layer right below said steel sheet surface and inside said steel sheet: B layer: Layer which has a thickness of 0.001 μm to 0.5 μm, which contains, based on mass of said B layer, one or more of Fe, Si, Mn, P, S, and Al oxides and optionally one or more of Ti, Nb, Cr, Mo, Ni, Cu, Zr, V, W, B, Ca, and REM oxides in a total of less than 50 mass%, which contains C, Si, Mn, P, S, and Al not in oxides and optionally Ti, Nb, Cr, Mo, Ni, Cu, Zr, V, W, B, Ca, and REM not in oxides in: C: less than 0.05 mass%, Si: less than 0.1 mass%, Mn: less than 0.5 mass%, P: less than 0.001 mass%, S: less than 0.001 mass%, Al: less than 0.005 mass%, and the optionally one or more of Ti, Nb, Cr, Mo, Ni, Cu, Zr, V, W, B, Ca, and REM in respectively less than 0.0001 mass%, and which contains Fe not in oxides in 50 mass% or more. C: less than 0.05 mass%, Si: less than 0.1 mass%, Mn: less than 0.5 mass%, P: less than 0.001 mass%, S: less than 0.001 mass%, Al: less than 0.005 mass%, and the optionally one or more of Ti, Nb, Cr, Mo, Ni, Cu, Zr, V, W, B, Ca, and REM in respectively less than 0.0001 mass%, and which contains Fe not in oxides in 50 mass% or more.
A sickle guard counter-knife insert comprising a pair of counter-knives, each counter-knife defining a channel for an operable sickle bar between mutually-coupled upper and lower portions, characterised by the counter-knives being connected together by a crossbar, wherein the counter-knives and crossbar are formed together as an integral unit.
A method for communicating in a communication network according to a mode of operation, comprising: configuring, by a user equipment, UE, the mode of operation to be used in the communicating with the communication network; and generating a data message to be transmitted; monitoring, by the UE, channel occupancy time, COT, acquired information corresponding to a COT in response to generating the data message to be transmitted, wherein the COT acquired information is signaled from a Radio Access Network, RAN; and communicating, by the UE, one or more listen before talk, LBT, messages during the COT with the communication network through the RAN based on the mode of operation, wherein the mode of operation is a Frame Based Equipment, FBE, mode of operation or a Load Based Equipment, LBE, mode of operation. configuring, by a user equipment, UE, the mode of operation to be used in the communicating with the communication network; and generating a data message to be transmitted; monitoring, by the UE, channel occupancy time, COT, acquired information corresponding to a COT in response to generating the data message to be transmitted, wherein the COT acquired information is signaled from a Radio Access Network, RAN; and communicating, by the UE, one or more listen before talk, LBT, messages during the COT with the communication network through the RAN based on the mode of operation, wherein the mode of operation is a Frame Based Equipment, FBE, mode of operation or a Load Based Equipment, LBE, mode of operation.