mhurhangee/ep-ind-claims huggingface dataset:
A display method of an electronic device including a touch screen including a main display region, a first curved auxiliary display region curved toward a first side of the main display region while integrally extending from the main display region and having a size smaller than that of the main display region, and a second curved auxiliary display region curved toward a second side of the main display region while integrally extending from the main display region and having a size smaller than that of the main display region, the display method comprising: displaying a character input field in the main display region; displaying a first keypad including user interaction, UI, elements corresponding to a plurality of characters, respectively, in the first curved auxiliary display region; displaying a second keypad including UI elements corresponding to a plurality of characters, respectively, in the second curved auxiliary display region; and when a touch input for selecting one UI element from the UI elements included in the first keypad and the second keypad is sensed, displaying the character corresponding to the selected one UI element in the character input field; wherein a position of one or more of the UI elements (2602-1, 2602-2) displayed in the second keypad is determined based on a position of a first UI element displayed in the first keypad and a character input history. displaying a character input field in the main display region; displaying a first keypad including user interaction, UI, elements corresponding to a plurality of characters, respectively, in the first curved auxiliary display region; displaying a second keypad including UI elements corresponding to a plurality of characters, respectively, in the second curved auxiliary display region; and when a touch input for selecting one UI element from the UI elements included in the first keypad and the second keypad is sensed, displaying the character corresponding to the selected one UI element in the character input field; wherein a position of one or more of the UI elements (2602-1, 2602-2) displayed in the second keypad is determined based on a position of a first UI element displayed in the first keypad and a character input history.
An apparatus, comprising: insertion circuitry configured to selectively delay first packets prior to insertion in a mesh network by a first time interval based on whether a failure has been detected in the mesh network, the first time interval corresponding to a maximum failure detection time interval for the mesh network; and reception circuitry configured to selectively delay second packets received from the mesh network by a second time interval depending on whether the failure has been detected. insertion circuitry configured to selectively delay first packets prior to insertion in a mesh network by a first time interval based on whether a failure has been detected in the mesh network, the first time interval corresponding to a maximum failure detection time interval for the mesh network; and reception circuitry configured to selectively delay second packets received from the mesh network by a second time interval depending on whether the failure has been detected.
Device for identifying objects or organisms in water, which are transparent in at least one part in infrared light, comprising - a basic body, comprising at least one axially symmetrical and globally convex section A, made of a material which is transparent in infrared light, - a barcode layer, applies at least partially on the at least one section A of the basic body, made of a material which is not transparent in infrared light, wherein the barcode layer is applied on the at least one section A in such a way that a barcode pattern, formed of sections of the barcode layer of equal or different widths, is produced on the at least one section A. - a basic body, comprising at least one axially symmetrical and globally convex section A, made of a material which is transparent in infrared light, - a barcode layer, applies at least partially on the at least one section A of the basic body, made of a material which is not transparent in infrared light, wherein the barcode layer is applied on the at least one section A in such a way that a barcode pattern, formed of sections of the barcode layer of equal or different widths, is produced on the at least one section A.
A method for purifying a protein from solution comprising: (a) a first chromatography step comprising: - passing said solution over a first chromatography column, said first chromatography column being a Protein A column; - eluting a crude protein eluent from the first chromatography column using a first elution buffer, wherein the first elution buffer comprises 15 to 25 mM Bis Tris, and 15 to 25 mM NaCl, adjusted to a pH comprised between 3 and 4 with acetic acid; (b) a second chromatography step comprising: - passing the crude protein eluent obtained at the end of step (a) over a second chromatography column; - eluting a protein eluate from the second chromatography column using a second elution buffer; and (c) a third chromatography step comprising: - passing the protein eluate obtained at the end of step (b) through a third chromatography column in the flow-through mode; - recovering purified protein from the flow-through of the third chromatography column; wherein each of the buffers comprises Bis Tris. (a) a first chromatography step comprising: - passing said solution over a first chromatography column, said first chromatography column being a Protein A column; - eluting a crude protein eluent from the first chromatography column using a first elution buffer, wherein the first elution buffer comprises 15 to 25 mM Bis Tris, and 15 to 25 mM NaCl, adjusted to a pH comprised between 3 and 4 with acetic acid; - passing said solution over a first chromatography column, said first chromatography column being a Protein A column; - eluting a crude protein eluent from the first chromatography column using a first elution buffer, wherein the first elution buffer comprises 15 to 25 mM Bis Tris, and 15 to 25 mM NaCl, adjusted to a pH comprised between 3 and 4 with acetic acid; (b) a second chromatography step comprising: - passing the crude protein eluent obtained at the end of step (a) over a second chromatography column; - eluting a protein eluate from the second chromatography column using a second elution buffer; and - passing the crude protein eluent obtained at the end of step (a) over a second chromatography column; - eluting a protein eluate from the second chromatography column using a second elution buffer; and (c) a third chromatography step comprising: - passing the protein eluate obtained at the end of step (b) through a third chromatography column in the flow-through mode; - recovering purified protein from the flow-through of the third chromatography column; - passing the protein eluate obtained at the end of step (b) through a third chromatography column in the flow-through mode; - recovering purified protein from the flow-through of the third chromatography column;
A particle separator for an environmental control system of an aircraft comprising: a first housing extending along an axis from an open proximal end to an open distal end; and a second housing extending into the first housing, wherein the second housing has one or more passages therein, the one or more passages are disposed within the first housing at a distance from the open proximal end thereof, and characterized by the second housing having a closed proximal end disposed adjacent the open proximal end of the first housing, and the second housing has a proximal portion coaxially positioned within the first housing that allows air to flow axially through the first housing between an outer surface of the proximal portion and an inner surface of the first housing. a first housing extending along an axis from an open proximal end to an open distal end; and a second housing extending into the first housing, wherein the second housing has one or more passages therein, the one or more passages are disposed within the first housing at a distance from the open proximal end thereof, and characterized by the second housing having a closed proximal end disposed adjacent the open proximal end of the first housing, and the second housing has a proximal portion coaxially positioned within the first housing that allows air to flow axially through the first housing between an outer surface of the proximal portion and an inner surface of the first housing.
A surgical robot for use in endoscopic surgery, the surgical robot comprising: a position information calculator configured to calculate information relating to a distal end position (St) of a treatment instrument used in endoscopic surgery, and information relating to a distal end position of an endoscope; a first display section configured to display a relative positional relationship between the distal end of the treatment instrument and the distal end of the endoscope by using a calculation result obtained from the position information calculator; and a second display section configured to display an image captured by the endoscope, characterized in that the first display section is configured to display a circular protractor centered on the distal end position of the endoscope, a center of the circular protractor coinciding with a center of a display screen of the first display section, together with the positional relationship. a position information calculator configured to calculate information relating to a distal end position (St) of a treatment instrument used in endoscopic surgery, and information relating to a distal end position of an endoscope; a first display section configured to display a relative positional relationship between the distal end of the treatment instrument and the distal end of the endoscope by using a calculation result obtained from the position information calculator; and a second display section configured to display an image captured by the endoscope, characterized in that the first display section is configured to display a circular protractor centered on the distal end position of the endoscope, a center of the circular protractor coinciding with a center of a display screen of the first display section, together with the positional relationship.
A method for production of positively charged oligosaccharides in the plant cell wall, particularly the secondary cell wall of a plant cell, said method comprising i. Introducing or providing a chimeric gene in the plant cell, said chimeric gene comprising: 1. a plant-expressible promoter; 2. a DNA region coding for a Nodulation C protein fused to a heterologous signal anchor sequence for targeting to the membranes of the Golgi-apparatus; and 3. a transcription termination and polyadenylation region. i. Introducing or providing a chimeric gene in the plant cell, said chimeric gene comprising: 1. a plant-expressible promoter; 2. a DNA region coding for a Nodulation C protein fused to a heterologous signal anchor sequence for targeting to the membranes of the Golgi-apparatus; and 3. a transcription termination and polyadenylation region. 1. a plant-expressible promoter; 2. a DNA region coding for a Nodulation C protein fused to a heterologous signal anchor sequence for targeting to the membranes of the Golgi-apparatus; and 3. a transcription termination and polyadenylation region.
An amplification device with reduced bulk comprising at least one plate parallel to a plane XY and N amplifier modules (41a, 41b) mounted on the plate, where N is greater than 1, each amplifier module (41a, 41b) comprising, in order of connection, an input connection waveguide (12a, 12b), an input transition (14a, 14b), an amplifier element (11a, 11b), an output transition (15a, 15b), and an output connection waveguide (13a, 13b), the input connection waveguide (12a, 12b) and the output connection waveguide (13a, 13b) being oriented in one and the same direction X corresponding to a direction of longitudinal propagation, the amplifier element (11a, 11b) having an input and output axis (18a, 18b) oriented in a direction Y perpendicular to the direction of propagation X, the input (12a, 12b) and the output (13a, 13b) connection waveguides having metallic walls, the amplification device further comprising an input power divider and an output power combiner with metallic waveguide technology, the power divider and the power combiner each comprising at least one resistive septum, and in that the septum of the power divider and the septum of the power combiner extend respectively the metallic walls separating the N input and output connection waveguides (12a, 12b, 13a, 13b) of the amplifier elements (11a,11b), the sum of the lengths of the input waveguide and of the output waveguide of each amplifier module being identical for the N amplifier modules, the amplification device being characterised in that the amplifier elements (11a, 11b) are mounted in parallel in at least one row and offset with respect to one another in the two perpendicular directions X and Y and in that the input waveguides (12a, 12b), respectively the output waveguides (13a, 13b), of the amplifier elements (11a, 11b) of the row adjoin one another.
Clock recovery method for coherent polarization multiplex receivers (1 - 14), comprising the steps of - coherent demodulating a received polarization multiplex signal and deriving orthogonal signal components (xi, xq; yi, yq), - sampling and converting the orthogonal signal components (xi, xq; yi, yq) into digital component values (XI, XQ; YI, YQ), characterized by the steps of - feeding said component values (XI, XQ; YI, YQ) in parallel to plural equalizers (EQU i), - deriving phase error values (X PEi; i = 1, 2,..., N) from output values (X Ei; i = 1, 2,..., N) of said equalizers (EQU i; i = 1, 2,..., N), - calculating resulting phase error values (X WPE) from at least two derived phase error values (X PEi; i = 1, 2,..., N), - deriving an oscillator control signal from said resulting phase error values (X WPE), and - controlling at least one controllable oscillator generating a sample signal for sampling said orthogonal signal components (xi, xq; yi, yq) or re-sampling the component values. - coherent demodulating a received polarization multiplex signal and deriving orthogonal signal components (xi, xq; yi, yq), - sampling and converting the orthogonal signal components (xi, xq; yi, yq) into digital component values (XI, XQ; YI, YQ), characterized by the steps of - feeding said component values (XI, XQ; YI, YQ) in parallel to plural equalizers (EQU i), - deriving phase error values (X PEi; i = 1, 2,..., N) from output values (X Ei; i = 1, 2,..., N) of said equalizers (EQU i; i = 1, 2,..., N), - calculating resulting phase error values (X WPE) from at least two derived phase error values (X PEi; i = 1, 2,..., N), - deriving an oscillator control signal from said resulting phase error values (X WPE), and - controlling at least one controllable oscillator generating a sample signal for sampling said orthogonal signal components (xi, xq; yi, yq) or re-sampling the component values.
Process for preparing silane-terminated polymers of the formula Y-[O-C(=O)-NH-(CR 1 2) b -S1R a (OR 2) 3-a] x, characterized in that in a 1 st process step at least one polymer of the formula Y- x is reacted with at least one isocyanate-functional silane of the formula O=C=N-(CR 1 2) b -SiR a (OR 2) 3-a with the proviso that the isocyanate-functional silanes are used in an amount such that there are at least 1.05 isocyanate groups in the silanes to each hydroxyl group in the compounds, where Y is an x-valent polymer radical, R may be identical or different and is a monovalent, optionally substituted hydrocarbon radical, R 1 may be identical or different and is hydrogen atom or a monovalent, optionally substituted hydrocarbon radical, R 2 may be identical or different and is hydrogen atom or a monovalent, optionally substituted hydrocarbon radical, x is an integer from 1 to 50, a may be identical or different and is 0, 1 or 2, and b may be identical or different and is an integer from 1 to 10, subsequently in a 2 nd process step the unreacted isocyanate groups of the silanes are reacted, in the reaction mixture obtained in the 1 st process step, with at least one alcohol of the formula R 3 OH, where R 3 is a hydrocarbon radical having 1 to 4 carbon atoms, and subsequently in a 3 rd process step the reaction mixture obtained in the 2 nd process step is passed through an evaporation unit in which the reaction mixture in a layer thickness of not more than 5 cm is exposed to a pressure of at most 80 mbar and temperatures of at most 200°C, with the carbamatosilane formed in the 2 nd process step, of the formula R 3 O-C(=O)-NH-(CR 1 2) b -SiR a (OR 2) 3-a, in which all the variables have the definition stated above, being at least partly evaporated and removed. Y is an x-valent polymer radical, R may be identical or different and is a monovalent, optionally substituted hydrocarbon radical, R 1 may be identical or different and is hydrogen atom or a monovalent, optionally substituted hydrocarbon radical, R 2 may be identical or different and is hydrogen atom or a monovalent, optionally substituted hydrocarbon radical, x is an integer from 1 to 50, a may be identical or different and is 0, 1 or 2, and b may be identical or different and is an integer from 1 to 10,
A method for manufacturing a graphene powder, the method comprising: preparing a graphene solution in which graphene particles are dispersed in a solvent, wherein the graphene particles are obtained by reducing a graphene oxide using a reducing agent; characterized in that aggregating the graphene particles by inducing aggregation using an agitator; separating the aggregated graphene particles from the solvent by using a filter; and drying the graphene particles. preparing a graphene solution in which graphene particles are dispersed in a solvent, wherein the graphene particles are obtained by reducing a graphene oxide using a reducing agent; characterized in that aggregating the graphene particles by inducing aggregation using an agitator; separating the aggregated graphene particles from the solvent by using a filter; and drying the graphene particles.
A nucleic acid molecule encoding a chimeric antigen receptor directed against the antigen CD37, wherein said CAR when expressed on the surface of an immune effector cell is capable of binding to the antigen CD37 expressed on a target cell surface and comprises an antigen-binding domain comprising a V L sequence and a V H sequence each comprising three CDR sequences, wherein a) CDRs 1, 2 and 3 of the V L sequence have the sequences of SEQ ID NOs. 43, 44 and 35 respectively; and b) CDRs 1, 2 and 3 of the V H sequence have the sequences of SEQ ID NOs. 45, 46 and 34 respectively; wherein the CAR comprises, downstream of an extracellular domain comprising the antigen-binding domain, a hinge domain, a transmembrane domain and an intracellular signalling domain, and wherein the hinge domain is the hinge domain of CD8α having the amino acid sequence of SEQ ID NO.9 or an amino acid sequence having at least 95 % sequence identity thereto. a) CDRs 1, 2 and 3 of the V L sequence have the sequences of SEQ ID NOs. 43, 44 and 35 respectively; and b) CDRs 1, 2 and 3 of the V H sequence have the sequences of SEQ ID NOs. 45, 46 and 34 respectively;
A method for adjusting screen locking time, comprises: acquiring time interval values T1, T2,..., and TN between screen locking and screen unlocking for consecutive N times, wherein an N value is a preset value; determining whether the time interval values T1, T2,..., and TN are all within a preset threshold range; and when it is determined that the time interval values T1, T2,..., and TN are all within the preset threshold range, updating a current screen locking time value into a sum of the current screen locking time value and a preset time delay value; characterized in that, after updating the current screen locking time value into the sum of the current screen locking time value and the preset time delay value, storing an updated screen locking time value, and recording steps of a current usage scenario; associating the current usage scenario with the updated screen locking time value; and when it is detected that a terminal enters the current usage scenario, updating the current screen locking time value into the updated screen locking time value directly. acquiring time interval values T1, T2,..., and TN between screen locking and screen unlocking for consecutive N times, wherein an N value is a preset value; determining whether the time interval values T1, T2,..., and TN are all within a preset threshold range; and when it is determined that the time interval values T1, T2,..., and TN are all within the preset threshold range, updating a current screen locking time value into a sum of the current screen locking time value and a preset time delay value; characterized in that, after updating the current screen locking time value into the sum of the current screen locking time value and the preset time delay value, storing an updated screen locking time value, and recording steps of a current usage scenario; associating the current usage scenario with the updated screen locking time value; and when it is detected that a terminal enters the current usage scenario, updating the current screen locking time value into the updated screen locking time value directly. storing an updated screen locking time value, and recording steps of a current usage scenario; associating the current usage scenario with the updated screen locking time value; and when it is detected that a terminal enters the current usage scenario, updating the current screen locking time value into the updated screen locking time value directly.